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THE ENCYCLOPÆDIA BRITANNICA

A DICTIONARY OF ARTS, SCIENCES, LITERATURE AND GENERAL INFORMATION

ELEVENTH EDITION

 

VOLUME IV SLICE IV

Bradford, William to Brequigny, Louis


 

Articles in This Slice

Articles in This Section

BRADFORD, WILLIAM (American colonial governor) BRAOSE, WILLIAM DE
BRADFORD, WILLIAM (printer) BRASCASSAT, JACQUES RAYMOND
BRADFORD, WILLIAM (painter) BRAS D’OR
BRADFORD (England) BRASDOR, PIERRE
BRADFORD (Pennsylvania, U.S.A.) BRASIDAS
BRADFORD CLAY BRASS (Nigeria)
BRADFORD-ON-AVON BRASS (alloy)
BRADLAUGH, CHARLES BRASSES, MONUMENTAL
BRADLEY, GEORGE GRANVILLE BRASSEUR DE BOURBOURG, CHARLES ÉTIENNE
BRADLEY, JAMES BRASSEY, THOMAS
BRADSHAW, GEORGE BRASSÓ
BRADSHAW, HENRY (English poet) BRATHWAIT, RICHARD
BRADSHAW, HENRY (British scholar) BRATIANU, ION C.
BRADSHAW, JOHN BRATLANDSDAL
BRADWARDINE, THOMAS BRATTISHING
BRADY, NICHOLAS BRATTLEBORO
BRAEKELEER, HENRI JEAN AUGUSTIN DE BRAUNAU
BRAEMAR BRAUNSBERG
BRAG BRAVO
BRAGA BRAWLING
BRAGANZA BRAY, SIR REGINALD
BRAGG, BRAXTON BRAY, THOMAS
BRAGI BRAY (England)
BRAHAM, JOHN BRAY (Ireland)
BRAHE, PER BRAYLEY, EDWARD WEDLAKE
BRAHE, TYCHO BRAZIER
BRAHMAN BRAZIL (legendary island)
BRAHMANA BRAZIL (republic)
BRAHMANISM BRAZIL (Indiana, U.S.A.)
BRAHMAPUTRA BRAZIL NUTS
BRAHMA SAMAJ BRAZIL WOOD
BRAHMS, JOHANNES BRAZING AND SOLDERING
BRAHUI BRAZZA, PIERRE PAUL FRANÇOIS CAMILLE SAVORGNAN DE
BRAID BRAZZA
BRAIDWOOD, THOMAS BREACH
BRAILA BREAD
BRAIN BREADALBANE, JOHN CAMPBELL
BRAINERD, DAVID BREADALBANE
BRAINERD BREAD-FRUIT
BRAINTREE (Essex, England) BREAKING BULK
BRAINTREE (Massachusetts, U.S.A.) BREAKWATER
BRAKE (town of Germany) BRÉAL, MICHEL JULES ALFRED
BRAKE (engineering) BREAM
BRAKELOND, JOCELYN DE BREAST
BRAMAH, JOSEPH BREAUTÉ, FALKES DE
BRAMANTE BRECCIA
BRAMPTON, HENRY HAWKINS BRECHIN
BRAMPTON BRECKINRIDGE, JOHN CABELL
BRAMWELL, GEORGE WILLIAM WILSHERE BRAMWELL BRECON
BRAN (Welsh hero) BRECONSHIRE
BRAN (husk of cereals) BREDA
BRANCH BREDAEL, JAN FRANS VAN
BRANCO BREDERODE, HENRY
BRANCOVAN BREDOW, GOTTFRIED GABRIEL
BRAND, JOHN BREDOW
BRAND, SIR JOHN HENRY BREECH
BRANDE, WILLIAM THOMAS BREEDS AND BREEDING
BRANDENBURG (electorate of Prussia) BREEZE
BRANDENBURG (province of Prussia) BREGENZ
BRANDENBURG (town of Germany) BREHON LAWS
BRANDER, GUSTAVUS BREISACH
BRANDES, GEORG MORRIS COHEN BREISGAU
BRANDING BREISLAK, SCIPIONE
BRANDIS, CHRISTIAN AUGUST BREITENFELD
BRANDON (Canada) BREMEN (German state)
BRANDON (England) BREMEN (German city)
BRANDY BREMER, FREDRIKA
BRANDYWINE BREMERHAVEN
BRANFORD BRENDAN
BRANGWYN, FRANK BRENHAM
BRANKS BRENNER PASS
BRANT, JOSEPH BRENNUS
BRANT, SEBASTIAN BRENTANO, KLEMENS
BRANTFORD BRENTANO, LUDWIG JOSEPH
BRANTINGHAM, THOMAS DE BRENTFORD
BRANTÔME, PIERRE DE BOURDEILLE BRENTON, SIR JAHLEEL
BRANTÔME BRENTWOOD
BRANXHOLM BRENZ, JOHANN
BRANXTON BRÉQUIGNY, LOUIS GEORGES OUDARD FEUDRIX DE

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BRADFORD, WILLIAM (1590-1657), American colonial governor and historian, was born in Austerfield, Yorkshire, England, probably in March 1590. He became somewhat estranged from his family, which was one of considerable importance in the locality, when in early youth he joined the Puritan sect known as Separatists, and united in membership with the congregation at Scrooby. He prepared in 1607, with other members of the church, to migrate to Holland, but the plan was discovered and several of the leaders, among them Bradford, were imprisoned. In the year following, however, he joined the English colony at Amsterdam, where he learned the trade of silk weaving. He subsequently sold his Yorkshire property and embarked in business on his own account at Leiden, where the English refugees had removed. He became an active advocate of the proposed emigration to America, was one of the party that sailed in the “Mayflower” in September 1620, and was one of the signers of the compact on shipboard in Cape Cod Bay. After the death of Governor John Carver in April 1621, Bradford was elected governor of Plymouth Colony, and served as such, with the exception of five years (1633, 1634, 1636, 1638 and 1644) until shortly before his death. After 1624, at Bradford’s suggestion, a board of five and later seven assistants was chosen annually to share the executive responsibility. Bradford’s rule was firm and judicious, and to his guidance more than to that of any other man the prosperity of the Plymouth Colony was due. His tact and kindness in dealing with the Indians helped to relieve the colony from the conflicts with which almost every other settlement was afflicted. In 1630 the council for New England granted to “William Bradford, his heires, associatts, and assignes,” a new patent enlarging the original grant of territory made to the Plymouth settlers. This patent Bradford in the name of the trustees made over to the body corporate of the colony in 1641. Bradford died in Plymouth on the 9th of May 1657. He was the author of a very important historical work, the History of Plimouth Plantation (until 1646), first published in the Proceedings of the Massachusetts Historical Society for 1856, and later by the state of Massachusetts (Boston, 1898), and in facsimile, with an introduction by John A. Doyle, in 1896. The manuscript disappeared from Boston during the War of Independence, was discovered in the Fulham library, London, in 1855, and was returned by the bishop of London to the state of Massachusetts in 1897. This work has been of inestimable value to writers on the history of the Pilgrims, and was freely used, in manuscript, by Morton, Hubbard, Mather, Prince and Hutchinson. Bradford was also undoubtedly part author, with Edward Winslow, of the “Diary of Occurrences” published in Mourts’ Relation, edited by Dr H.M. Dexter (Boston, 1865). He also wrote a series of Dialogues, on church government, published in the Massachusetts Historical Society’s Publications (1870.)

BRADFORD, WILLIAM (1590-1657), American colonial governor and historian, was born in Austerfield, Yorkshire, England, likely in March 1590. He became somewhat distanced from his family, which was quite prominent in the area, when he joined the Puritan group known as the Separatists in his youth and became a member of the congregation at Scrooby. In 1607, he prepared to migrate to Holland with other church members, but their plan was discovered, and several leaders, including Bradford, were imprisoned. The following year, however, he joined the English colony in Amsterdam, where he learned the trade of silk weaving. He later sold his Yorkshire property and started his own business in Leiden, where the English refugees had settled. He became a strong supporter of the proposed emigration to America, sailed on the “Mayflower” in September 1620, and signed the compact aboard the ship in Cape Cod Bay. After Governor John Carver died in April 1621, Bradford was elected governor of Plymouth Colony and served, except for five years (1633, 1634, 1636, 1638, and 1644), until shortly before his death. After 1624, at Bradford’s suggestion, a board of five and later seven assistants was chosen every year to share the executive responsibilities. Bradford's leadership was firm and wise, and thanks to his guidance more than anyone else's, the Plymouth Colony thrived. His diplomacy and kindness towards the Indigenous people helped prevent conflicts that troubled almost every other settlement. In 1630, the council for New England granted “William Bradford, his heirs, associates, and assigns,” a new patent that expanded the original land grant given to the Plymouth settlers. Bradford transferred this patent to the colony's corporate body on behalf of the trustees in 1641. He died in Plymouth on May 9, 1657. He authored an important historical work, the History of Plimouth Plantation (up to 1646), which was first published in the Proceedings of the Massachusetts Historical Society in 1856 and later by the state of Massachusetts (Boston, 1898), and in facsimile with an introduction by John A. Doyle in 1896. The manuscript went missing from Boston during the War of Independence, was found in the Fulham Library in London in 1855, and was returned by the Bishop of London to the state of Massachusetts in 1897. This work has been invaluable to historians studying the Pilgrims, and it was extensively used in manuscript form by Morton, Hubbard, Mather, Prince, and Hutchinson. Bradford was also undeniably a co-author, alongside Edward Winslow, of the “Diary of Occurrences” published in Mourts’ Relation, edited by Dr. H.M. Dexter (Boston, 1865). He also wrote a series of Dialogues on church government, published in the Massachusetts Historical Society’s Publications (1870).

For Bradford’s ancestry and early life see Joseph Hunter, Collections concerning the Founders of New Plymouth, in Massachusetts Historical Society’s Collections (Boston, 1852); also the quaint sketch in Cotton Mather’s Magnalia (London, 1702), and a chapter in Williston Walker’s Ten New England Leaders (New York, 1901).

For Bradford’s background and early life, check out Joseph Hunter's Collections concerning the Founders of New Plymouth, in the Massachusetts Historical Society’s Collections (Boston, 1852); also take a look at the interesting sketch in Cotton Mather’s Magnalia (London, 1702), and a chapter in Williston Walker’s Ten New England Leaders (New York, 1901).


BRADFORD, WILLIAM (1663-1752), American colonial printer, was born in Leicestershire, England, on the 20th of May 1663. He learned the printer’s trade in London with Andrew Sowle, and in 1682 emigrated with William Penn to Pennsylvania, where in 1685 he introduced the “art and mystery” of printing into the Middle Colonies. His first imprint was an almanac, Kalendarium Pennsilvaniense or America’s Messenger (1685). At the outset he was ordered “not to print anything but what shall have lycence from ye council,” and in 1692, the colony then being torn by schism, he issued a tract for the minority sect of Friends, whereupon his press was seized and he was arrested. He was released, however, and his press was restored on his appeal to Governor Benjamin Fletcher. In 1690, with William Rittenhouse (1644-1708) and others, he established in Roxboro, Pennsylvania, now a part of Philadelphia, the first paper mill in America. In the spring of 1693 he removed to New York, where he was appointed royal printer for the colony, a position which he held for more than fifty years; and on the 8th of November 1725 he issued the first number of the New York Gazette, the first paper established in New York and from 1725 to 1733 the only paper in the colony. Bradford died in New York on the 23rd of May 1752.

BRADFORD, WILLIAM (1663-1752), American colonial printer, was born in Leicestershire, England, on May 20, 1663. He learned the printing trade in London under Andrew Sowle, and in 1682 he emigrated with William Penn to Pennsylvania, where in 1685 he brought the “art and mystery” of printing to the Middle Colonies. His first printed work was an almanac, Kalendarium Pennsilvaniense or America’s Messenger (1685). Initially, he was ordered “not to print anything but what shall have license from the council,” and in 1692, amid a divided colony, he published a tract for the minority group of Friends, leading to the seizure of his press and his arrest. However, he was released, and his press was returned to him after he appealed to Governor Benjamin Fletcher. In 1690, along with William Rittenhouse (1644-1708) and others, he founded the first paper mill in America in Roxboro, Pennsylvania, now part of Philadelphia. In the spring of 1693, he moved to New York, where he was appointed royal printer for the colony, a position he held for over fifty years; and on November 8, 1725, he published the first issue of the New York Gazette, the first newspaper established in New York and, from 1725 to 1733, the only one in the colony. Bradford died in New York on May 23, 1752.

His son, Andrew Sowle Bradford (1686-1742), removed from New York to Philadelphia in 1712, and there on the 22nd of December 1719 issued the first number of the American Weekly Mercury, the first newspaper in the Middle Colonies. Benjamin Franklin, for a time a compositor in the office, characterized the paper as “a paltry thing, in no way interesting”; but it was continued for many years and was edited by Bradford until his death.

His son, Andrew Sowle Bradford (1686-1742), moved from New York to Philadelphia in 1712, and there on December 22, 1719, published the first issue of the American Weekly Mercury, the first newspaper in the Middle Colonies. Benjamin Franklin, who briefly worked as a typesetter in the office, described the paper as “a cheap thing, in no way interesting”; however, it continued for many years and was edited by Bradford until his death.

The latter’s nephew, William Bradford (1722-1791), established in December 1742 the Pennsylvania Journal and Weekly Advertiser, which was for sixty years under his control or that of his son, and which in 1774-1775 bore the oft-reproduced device of a divided serpent with the motto “Unite or Die.” He served in the War of American Independence, rising to the rank of colonel. His son, William Bradford (1755-1795), also served in the War of Independence, and afterwards was attorney-general of Pennsylvania (1791), a judge of the supreme court of the state, and in 1794-1795 attorney-general of the United States.

The nephew of the latter, William Bradford (1722-1791), started the Pennsylvania Journal and Weekly Advertiser in December 1742, which he or his son controlled for sixty years. From 1774-1775, it featured the well-known image of a divided serpent with the motto “Unite or Die.” He served in the American Revolutionary War, achieving the rank of colonel. His son, William Bradford (1755-1795), also fought in the Revolution and later became the attorney general of Pennsylvania (1791), a judge on the state's supreme court, and served as the attorney general of the United States from 1794-1795.


BRADFORD, WILLIAM (1827-1892), American marine painter, was born at New Bedford, Massachusetts. He was a Quaker, and was self-taught, painting the ships and the marine views he saw along the coast of Massachusetts, Labrador and Nova Scotia; he went on several Arctic expeditions with Dr Hayes, and was the first American painter to portray the frozen regions of the north. His pictures attracted much attention by reason of their novelty and gorgeous colour effects. His “Steamer ’Panther’ in Melville Bay, under the Light of the Midnight Sun” was exhibited at the Royal Academy in London in 1875. Bradford was a member of the National Academy of Design, New York, and died in that city on the 25th of April 1892. His style was somewhat influenced by Albert van Beest, who worked with Bradford at Fairhaven for a time; but Bradford is minute and observant of detail where van Beest’s aim is general effect.

BRADFORD, WILLIAM (1827-1892), an American marine painter, was born in New Bedford, Massachusetts. He was a Quaker and self-taught, creating paintings of the ships and marine views he observed along the coasts of Massachusetts, Labrador, and Nova Scotia. He participated in several Arctic expeditions with Dr. Hayes and was the first American painter to depict the frozen regions of the north. His artwork gained significant attention for its novelty and vibrant color effects. His piece “Steamer ‘Panther’ in Melville Bay, under the Light of the Midnight Sun” was exhibited at the Royal Academy in London in 1875. Bradford was a member of the National Academy of Design in New York and passed away in that city on April 25, 1892. His style was somewhat influenced by Albert van Beest, who worked with Bradford in Fairhaven for a while; however, Bradford was meticulous and detail-oriented, whereas van Beest focused on general effects.


BRADFORD, a city, and municipal, county and parliamentary borough, in the West Riding of Yorkshire, England, 192 m. N.N.W. of London and 8 m. W. of Leeds. Pop. (1891) 265,728; (1901) 279,767. It is served by the Midland and the North Eastern railways (Midland station), and by the Great Northern and the Lancashire & Yorkshire railways (Exchange station). It lies in a small valley opening southward from that of the 371 Aire, and extends up the hills on either side. Most of the principal streets radiate from a centre between the Midland and Exchange stations and the town hall. This last is a handsome building, opened in 1873, surmounted by a bell tower. The exterior is ornamented with statues of English monarchs. The council-chamber contains excellent wood-carving. The extension of the building was undertaken in 1905. The parish church of St Peter is Perpendicular, dating from 1485, and occupies the site of a Norman church. Its most noteworthy feature is the fine original roof of oak. There was no other church in the town until 1815, but modern churches and chapels are numerous. Among educational institutions, the grammar school existed in the 16th century, and in 1663 received a charter of incorporation from Charles II. It occupies a building erected in 1873, and is largely endowed, possessing several scholarships founded by prominent citizens. The technical college, under the corporation since 1899, was opened in 1882. A mechanics’ institute was founded in 1832, and in 1871 the handsome mechanics’ hall, close to the town hall, was opened. Other establishments are the Airedale College of students for the Independent ministry, and the United Independent College (1888). The general infirmary is the principal of numerous charitable institutions. The most noteworthy public buildings beside the town hall are St George’s hall (1853), used for concerts and public meetings, the exchange (1867), extensive market buildings, and two court-houses. The Cartwright memorial hall, principally the gift of Lord Masham, opened in 1904 and containing an art gallery and museum, commemorates Dr Edmund Cartwright (1743-1823) as the inventor of the power-loom and the combing-machine. The hall stands in Lister Park, and was opened immediately before, and used in connexion with, the industrial exhibition held here in 1904. The Temperance hall is of interest inasmuch as the first hall of this character in England was erected at Bradford in 1837. Some of the great warehouses are of considerable architectural merit. Statues commemorate several of those who have been foremost in the development of the city, such as Sir Titus Salt, Mr S.C. Lister (Lord Masham), and W.E. Forster. Of several parks the largest are Lister, Peel, and Bowling parks, each exceeding fifty acres. In the last is an ancient and picturesque mansion, which formerly belonged to the Bowling or Bolling family. A large acreage of high-lying moorland near the city is maintained by the corporation as a public recreation ground.

BRADFORD, is a city and municipal, county, and parliamentary borough located in the West Riding of Yorkshire, England, 192 miles north-northwest of London and 8 miles west of Leeds. Population: (1891) 265,728; (1901) 279,767. It is served by the Midland and North Eastern railways (Midland station) and by the Great Northern and Lancashire & Yorkshire railways (Exchange station). The city lies in a small valley that opens south from the Aire valley, extending up the hills on both sides. Most of the main streets radiate from a center located between the Midland and Exchange stations and the town hall. The town hall itself is an impressive building that opened in 1873 and features a bell tower. The outside is decorated with statues of English monarchs. The council chamber is beautifully crafted with excellent wood carvings. An extension of the building was completed in 1905. The parish church of St Peter is built in the Perpendicular style, dating back to 1485, and stands on the site of a Norman church. Its most notable feature is the beautiful original oak roof. There was no other church in town until 1815, but there are now many modern churches and chapels. Among educational institutions, the grammar school dates back to the 16th century and received a charter from Charles II in 1663. It occupies a building constructed in 1873 and is well-endowed, having several scholarships established by prominent citizens. The technical college, managed by the corporation since 1899, opened in 1882. A mechanics’ institute was founded in 1832, and in 1871, the attractive mechanics’ hall, located near the town hall, was opened. Additional institutions include the Airedale College for students of the Independent ministry and the United Independent College (1888). The general infirmary is the main one among numerous charitable institutions. Other notable public buildings besides the town hall include St George’s Hall (1853), which is used for concerts and public meetings, the exchange (1867) with extensive market buildings, and two court houses. The Cartwright Memorial Hall, mainly a gift from Lord Masham, opened in 1904 and includes an art gallery and museum, commemorating Dr. Edmund Cartwright (1743-1823), the inventor of the power-loom and combing machine. The hall is set in Lister Park and was inaugurated just before the industrial exhibition held here in 1904. The Temperance Hall is significant because the first hall of this kind in England was built in Bradford in 1837. Some of the large warehouses are architecturally noteworthy. Statues honor several key figures in the city's development, such as Sir Titus Salt, Mr. S.C. Lister (Lord Masham), and W.E. Forster. Among the several parks, the largest are Lister, Peel, and Bowling Parks, each exceeding fifty acres. Bowling Park features an ancient and picturesque mansion that once belonged to the Bowling or Bolling family. A large area of high-lying moorland near the city is maintained by the corporation as a public recreation ground.

As a commercial centre Bradford is advantageously placed with regard to both railway communication and connexion with the Humber and with Liverpool by canal, and through the presence in its immediate vicinity of valuable deposits of coal and iron. The principal textile manufactures in order of importance are worsted, employing some 36,000 hands, females considerably outnumbering males; woollens, employing some 8000, silk and cotton. The corporation maintains a conditioning-hall for testing textile materials. A new hall was opened in 1902. Engineering and iron works (as at Bowling and Low Moor) are extensive; and the freestone of the neighbourhood is largely quarried, and in Bradford itself its use is general for building. It blackens easily under the influence of smoke, and the town has consequently a somewhat gloomy appearance. The trade of Bradford, according to an official estimate, advanced between 1836 and 1884 from a total of five to at least thirty-five millions sterling, and from not more than six to at least fifty staple articles. The annual turn-over in the staple trade is estimated at about one hundred millions sterling.

As a commercial center, Bradford is well-positioned for both railway connections and its links to the Humber and Liverpool by canal, thanks to the nearby valuable deposits of coal and iron. The main textile industries in order of importance are worsted, employing around 36,000 people, with women outnumbering men; followed by woolens, which employ about 8,000, along with silk and cotton. The city operates a conditioning hall for testing textile materials, with a new hall opening in 1902. Engineering and ironworks, like those at Bowling and Low Moor, are significant, and the local freestone is widely quarried and commonly used for construction in Bradford. It tends to darken quickly due to smoke, giving the town a rather gloomy look. Bradford's trade, according to an official estimate, grew from a total of five million to at least thirty-five million sterling between 1836 and 1884, with the number of staple articles increasing from no more than six to at least fifty. The annual turnover in the staple trade is estimated to be around one hundred million sterling.

Bradford was created a city in 1897. The parliamentary borough returned two members from 1832 until 1885, when it was divided into three divisions, each returning one member. The county borough was created in 1888. Its boundaries include the suburbs, formerly separate urban districts, of Eccleshill, Idle and others. The corporation consists of a lord mayor (this dignity was conferred in 1907), 21 aldermen, and 63 councillors. One feature of municipal activity in Bradford deserves special notice—there is a municipal railway, opened in 1907, extending from Pateley Bridge to Lofthouse (6 m.) and serving the Nidd valley, the district from which the main water-supply of the city is obtained. Area of the city, 22,879 acres.

Bradford became a city in 1897. The parliamentary borough elected two members from 1832 until 1885, when it was split into three divisions, each electing one member. The county borough was established in 1888. Its boundaries include the suburbs, which were once separate urban districts, of Eccleshill, Idle, and others. The corporation includes a lord mayor (this title was granted in 1907), 21 aldermen, and 63 councillors. One notable aspect of municipal activity in Bradford is the municipal railway, which opened in 1907, extending from Pateley Bridge to Lofthouse (6 miles) and serving the Nidd valley, which is the main source of the city's water supply. The area of the city is 22,879 acres.

Bradford, which is mentioned as having belonged before 1066, with several other manors in Yorkshire, to one Gamel, appears to have been almost destroyed during the conquest of the north of England and was still waste in 1086. By that time it had been granted to Ilbert de Lacy, in whose family it continued until 1311. The inquisition taken after the death of Henry de Lacy, earl of Lincoln, in that year gives several interesting facts about the manor; the earl had there a hall or manor-house, a fulling mill, a market every Sunday, and a fair on the feast of St Andrew. There were also certain burgesses holding twenty-eight burgages. Alice, only daughter and heiress of Henry de Lacy, married Thomas Plantagenet, earl of Lancaster, and on the attainder of her husband she and Joan, widow of Henry, were obliged to release their rights in the manor to the king. The earl of Lancaster’s attainder being reversed in 1327, Bradford, with his other property, was restored to his brother and heir, Henry Plantagenet, but again passed to the crown on the accession of Henry IV., through the marriage of John of Gaunt with Blanche, one of the daughters and heirs of Henry Plantagenet. Bradford was evidently a borough by prescription and was not incorporated until 1847. Previous to that date the chief officer in the town had been the chief constable, who was appointed annually at the court leet of the manor. Before the 19th century Bradford was never represented in parliament, but in 1832 it was created a parliamentary borough returning two members. A weekly market on Thursdays was granted to Edward de Lacy in 1251 and confirmed in 1294 to Henry de Lacy, earl of Lincoln, with the additional grant of a fair on the eve and day of St Peter ad Vincula and three days following. In 1481 Edward IV. granted to certain feoffees in whom he had vested his manor of Bradford a market on Thursday every week and two yearly fairs, one on the feast of the Deposition of St William of York and two days preceding, the other on the feast of St Peter in Cathedra and two days preceding.

Bradford, which was noted to have been owned before 1066, along with several other estates in Yorkshire, by a person named Gamel, seems to have been largely destroyed during the conquest of northern England and remained uninhabited in 1086. By that time, it had been given to Ilbert de Lacy, and it stayed in his family until 1311. The investigation conducted after the death of Henry de Lacy, the Earl of Lincoln, in that year reveals several interesting details about the manor; the earl had a hall or manor house there, a fulling mill, a market every Sunday, and a fair on the feast of St. Andrew. There were also certain burgesses holding twenty-eight burgages. Alice, the only daughter and heiress of Henry de Lacy, married Thomas Plantagenet, Earl of Lancaster, and when her husband was attainted, she and Joan, Henry's widow, had to give up their rights to the manor to the king. The Earl of Lancaster's attainder was reversed in 1327, and Bradford, along with his other properties, was restored to his brother and heir, Henry Plantagenet, but it once again went back to the crown when Henry IV ascended the throne through the marriage of John of Gaunt to Blanche, one of the daughters and heirs of Henry Plantagenet. Bradford was clearly a borough by custom and was not officially incorporated until 1847. Before that date, the main official in the town was the chief constable, who was appointed each year at the court leet of the manor. Prior to the 19th century, Bradford was never represented in parliament, but in 1832 it was established as a parliamentary borough, returning two members. A weekly market on Thursdays was granted to Edward de Lacy in 1251 and confirmed in 1294 to Henry de Lacy, Earl of Lincoln, who also received an additional grant for a fair on the eve and day of St. Peter ad Vincula and for three days afterward. In 1481, Edward IV granted certain feoffees, to whom he had entrusted his manor of Bradford, a market every Thursday and two yearly fairs—one on the feast of the Deposition of St. William of York and two days before, and the other on the feast of St. Peter in Cathedra and two days before that.

From the mention of a fulling mill in 1311 it is possible that woollen manufacture had been begun at that time. By the reign of Henry VIII. it had become an important industry and added much to the status of the town. Towards the end of the 17th and beginning of the 18th century the woollen trade decreased and worsted manufacture began to take its place. Leland in his Itinerary says that Bradford is “a praty quik Market Toune. It standith much by clothing.” In 1773 a piece hall was erected and for many years served as a market-place for the manufacturers and merchants of the district. On the introduction of steam-power and machinery the worsted trade advanced with great rapidity. The first mill in Bradford was built in 1798; there were 20 mills in the town in 1820, 34 in 1833, and 70 in 1841; and at the present time there are over 300, of much greater magnitude than the earlier factories. In 1836 Mr (afterwards Sir) Titus Salt developed the alpaca manufacture in the town; mohair was shortly afterwards introduced; and the great works at Saltaire were opened (see Shipley). Later, Mr S.C. Lister (Lord Masham) introduced the silk and velvet manufacture, having invented a process of manipulating silk waste, whereby what was previously treated as refuse is made into goods that will compete with those manufactured from the perfect cocoon.

From the mention of a fulling mill in 1311, it's likely that wool production started around that time. By the reign of Henry VIII, it had become a significant industry and elevated the town's status. Towards the end of the 17th century and the start of the 18th century, the wool trade declined, and worsted production began to take its place. Leland in his Itinerary describes Bradford as “a pretty quick Market Town. It relies heavily on clothing.” In 1773, a piece hall was built, which served as a marketplace for local manufacturers and merchants for many years. With the introduction of steam power and machinery, the worsted trade rapidly grew. The first mill in Bradford was constructed in 1798; by 1820, there were 20 mills in the town, 34 in 1833, and 70 in 1841; and now there are over 300, much larger than the earlier factories. In 1836, Mr. (later Sir) Titus Salt pioneered alpaca production in the town; soon after, mohair was introduced; and the major works at Saltaire were opened (see Shipley). Later, Mr. S.C. Lister (Lord Masham) brought in silk and velvet production, having invented a method for processing silk waste, turning what was once considered refuse into products that compete with those made from perfect cocoons.

See John James, History of Bradford (1844, new and enlarged ed., 1866); A. Holroyd, Collectanea Bradfordiana (1873); Victoria County History—Yorkshire.

See John James, History of Bradford (1844, new and enlarged ed., 1866); A. Holroyd, Collectanea Bradfordiana (1873); Victoria County History—Yorkshire.


BRADFORD, a city of McKean county, Pennsylvania, U.S.A., near the N. border of the state, about 80 m. E. by S. of Erie. Pop. (1890) 10,514; (1900) 15,029, of whom 2211 were foreign-born; (1910 census) 14,544. It is served by the Pennsylvania, the Erie, and the Buffalo, Rochester & Pittsburg railways, and is connected with Olean, New York, by an electric line. Bradford is situated 1427 ft. above sea-level in the valley of the Tuna, and is shut in by hills on either side. Since 1876 it has been one 372 of the most important oil centres of the state, and it has been connected by pipe lines with cities along the Atlantic coast; petroleum refining is an important industry. Among the city’s manufactures are boilers, machines, glass, chemicals, terra cotta, brick, iron pipes and couplings, gas engines, cutlery and silk. The place was first settled about 1827; in 1838 it was laid out as a town and named Littleton; in 1858 the present name, in honour of William Bradford (1755-1795), was substituted; and Bradford was incorporated as a borough in 1873, and was chartered as a city in 1879. Kendall borough was annexed to Bradford in 1893.

BRADFORD, is a city in McKean County, Pennsylvania, U.S.A., near the northern border of the state, about 80 miles east-southeast of Erie. Population (1890) was 10,514; (1900) 15,029, of which 2,211 were foreign-born; (1910 census) 14,544. It is served by the Pennsylvania, Erie, and Buffalo, Rochester & Pittsburg railways, and is connected to Olean, New York, by an electric line. Bradford is located 1,427 feet above sea level in the valley of the Tuna, surrounded by hills on both sides. Since 1876, it has been one 372 of the most significant oil centers in the state and has been linked by pipelines to cities along the Atlantic coast; petroleum refining is a major industry. The city produces a variety of manufactured goods, including boilers, machines, glass, chemicals, terra cotta, brick, iron pipes and couplings, gas engines, cutlery, and silk. The area was first settled around 1827; in 1838 it was laid out as a town and named Littleton; in 1858, it was renamed Bradford in honor of William Bradford (1755-1795); Bradford was incorporated as a borough in 1873 and chartered as a city in 1879. Kendall borough was annexed to Bradford in 1893.


BRADFORD CLAY, in geology, a thin, rather inconstant bed of clay or marl situated in England at the base of the Forest Marble, the two together constituting the Bradfordian group in the Bathonian series of Jurassic rocks. The term “Bradford Clay” appears to have been first used by J. de. C. Sowerby in 1823 (Mineral Conchology, vol. v.) as an alternative for W. Smith’s “Clay on Upper Oolite.” The clay came into notice late in the 18th century on account of the local abundance of the crinoid Apiocrinus Parkinsoni. It takes its name from Bradford-on-Avon in Wiltshire, whence it is traceable southward to the Dorset coast and northward towards Cirencester. It may be regarded as a local phase of the basement beds of the Forest Marble, from which it cannot be separated upon either stratigraphical or palaeontological grounds. It is seldom more than 10 ft. thick, and it contains as a rule a few irregular layers of limestone and calcareous sandstone. The lowest layer is often highly fossiliferous; some of the common forms being Arca minuta, Ostrea gregaria, Waldheimia digona, Terebratula coarctata, Cidaris bradfordensis, &c.

BRADFORD CLAY, is a thin, somewhat inconsistent layer of clay or marl found in England at the base of the Forest Marble. Together, they make up the Bradfordian group within the Bathonian series of Jurassic rocks. The term “Bradford Clay” was first introduced by J. de. C. Sowerby in 1823 (Mineral Conchology, vol. v.) as an alternative to W. Smith’s “Clay on Upper Oolite.” This clay gained attention in the late 18th century due to the local abundance of the crinoid Apiocrinus Parkinsoni. It gets its name from Bradford-on-Avon in Wiltshire, extending southward to the Dorset coast and northward toward Cirencester. It can be considered a local phase of the basement beds of the Forest Marble, from which it cannot be differentiated either stratigraphically or paleontologically. It is usually no more than 10 ft. thick and typically contains a few irregular layers of limestone and calcareous sandstone. The lowest layer is often rich in fossils, with common forms including Arca minuta, Ostrea gregaria, Waldheimia digona, Terebratula coarctata, Cidaris bradfordensis, etc.

See H.B. Woodward, “Jurassic Rocks of Britain,” Mem. Geol. Survey, vol. iv. (1904).

See H.B. Woodward, “Jurassic Rocks of Britain,” Mem. Geol. Survey, vol. iv. (1904).


BRADFORD-ON-AVON, a market town in the Westbury parliamentary division of Wiltshire, England, on the rivers Avon and Kennet, and the Kennet & Avon Canal, 98 m. W. by S. of London by the Great Western railway. Pop. of urban district (1901) 4514. Its houses, all built of grey stone, rise in picturesque disorder up the steep sides of the Avon valley, here crossed by an ancient bridge of nine arches, with a chapel in the centre. Among many places of worship may be mentioned the restored parish church of Holy Trinity, which dates from the 12th century and contains some interesting monuments and brasses; and the Perpendicular Hermitage or Tory chapel, with a 15th or 16th century chantry-house. But most notable is the Saxon church of St Lawrence, the foundation of which is generally attributed, according to William of Malmesbury (1125), to St Aldhelm, early in the 8th century. It consists of a chancel, nave and porch, in such unchanged condition that E.A. Freeman considered it “the most perfect surviving church of its kind in England, if not in Europe.” It has more lately, however, been held that the present building is not Aldhelm’s, but a restoration, dating from about 975, and attributable to the influence of Dunstan, archbishop of Canterbury. Kingston House, long the seat of the dukes of Kingston, is a beautiful example of early 17th-century domestic architecture. The local industries include the manufacture of rubber goods, brewing, quarrying and iron-founding.

BRADFORD-ON-AVON, is a market town in the Westbury parliamentary division of Wiltshire, England, located on the rivers Avon and Kennet, and along the Kennet & Avon Canal, 98 miles west by south of London by the Great Western railway. The population of the urban district in 1901 was 4,514. Its houses, all made of grey stone, rise in a charmingly disorganized way up the steep sides of the Avon valley, where an ancient bridge with nine arches crosses, featuring a chapel in the center. Among the many places of worship, the restored parish church of Holy Trinity stands out, dating back to the 12th century and housing some interesting monuments and brasses; along with the Perpendicular Hermitage or Tory chapel, which includes a chantry-house from the 15th or 16th century. However, the most notable is the Saxon church of St. Lawrence, which is generally believed, according to William of Malmesbury (1125), to have been founded by St. Aldhelm in the early 8th century. It comprises a chancel, nave, and porch, remaining so unchanged that E.A. Freeman regarded it as “the most perfect surviving church of its kind in England, if not in Europe.” More recently, though, it has been suggested that the current structure is not Aldhelm’s original but rather a restoration from around 975, influenced by Dunstan, the archbishop of Canterbury. Kingston House, which has long been the residence of the dukes of Kingston, is a beautiful example of early 17th-century domestic architecture. The local industries include the production of rubber goods, brewing, quarrying, and iron-founding.

Bradford (Bradauford, Bradeford) was the site of a battle in 652 between Kenwal and his kinsman Cuthred. A monastery existed here in the 8th century, of which St Aldhelm was abbot at the time of his being made bishop of Sherborne in A.D. 705. In 1001 Æthelred gave this monastery and the town of Bradford to the nunnery of Shaftesbury, in order that the nuns might have a safe refuge against the insults of the Danes. No mention of the monastery occurs after the Conquest, but the nunnery of Shaftesbury retained the lordship of the manor until the dissolution in the reign of Henry VIII. In a synod held here in 954, Dunstan was elected bishop of Winchester. Bradford appears as a borough in the Domesday survey, and is there assessed at 42 hides. No charter of incorporation is recorded, however, and after returning two members to the parliament of 1295 the town does not appear to have enjoyed any of the privileges of a borough. The market is of ancient origin, and was formerly held on Monday; in the survey the tolls are assessed at 45 shillings. Bradford was at one time the centre of the clothing industry in the west of England, and was especially famous for its broadcloths and mixtures, the waters of the Avon being especially favourable to the production of good colours and superior dyes. The industry declined in the 18th century, and in 1740 we find the woollen merchants of Bradford petitioning for an act of parliament to improve their trade and so re-establish their credit in foreign markets.

Bradford (Bradauford, Bradeford) was the site of a battle in 652 between Kenwal and his relative Cuthred. A monastery existed here in the 8th century, where St Aldhelm served as abbot before he became bishop of Sherborne in C.E. 705. In 1001, Æthelred gave this monastery and the town of Bradford to the nunnery of Shaftesbury so the nuns could have a safe refuge from the Danes' attacks. There are no records of the monastery after the Conquest, but the nunnery of Shaftesbury kept control of the manor until the dissolution during Henry VIII's reign. In a synod held here in 954, Dunstan was elected bishop of Winchester. Bradford shows up as a borough in the Domesday survey, where it is assessed at 42 hides. However, there is no recorded charter of incorporation, and after sending two representatives to Parliament in 1295, the town seems to have lost any borough privileges. The market is very old and used to be held on Mondays; in the survey, the tolls are valued at 45 shillings. At one point, Bradford was the center of the clothing industry in western England and was particularly known for its broadcloths and mixtures, with the waters of the Avon being ideal for producing vibrant colors and high-quality dyes. The industry declined in the 18th century, and by 1740, the wool merchants of Bradford were petitioning Parliament for an act to improve their trade and restore their reputation in foreign markets.


BRADLAUGH, CHARLES (1833-1891), English free-thinker and politician, was born at Hoxton, London, on the 26th of September 1833. His father was a poor solicitor’s clerk, who also had a small business as a law stationer, and his mother had been a nursemaid. At twelve years old he became office-boy to his father’s employer, and at fourteen wharf-clerk and cashier to a coal merchant in the City Road. He had been baptized and brought up in the Church of England, but he now came into contact with a group of free-thinkers who were disciples of Richard Carlile. He was hastily labelled an “atheist,” and was turned out of his situation. Thus driven into the arms of the secularists, he managed to earn a living by odd jobs, and became further immersed in the study of free-thought. At the end of 1850 he enlisted as a soldier, but in 1853 was bought out with money provided by his mother. He then found employment as a lawyer’s clerk, and gradually became known as a free-thought lecturer, under the name of “Iconoclast.” From 1860 he conducted the National Reformer for several years, and displayed much resource in legal defence when the paper was prosecuted by the government on account of its alleged blasphemy and sedition in 1868-1869. Bradlaugh became notorious as a leading “infidel,” and was supported by the sympathy of those who were enthusiasts at that time for liberty of speech and thought. He was a constant figure in the law courts; and his competence to take the oath was continually being called in question, while his atheism and republican opinions were adduced as reasons why no jury should give damages for attacks on his character. In 1874 he became acquainted with Mrs Annie Besant (b. 1847), who afterwards became famous for her gifts as a lecturer on socialism and theosophy. She began by writing for the National Reformer and soon became co-editor. In 1876 the Bristol publisher of an American pamphlet on the population question, called Fruits of Philosophy, was indicted for selling a work full of indecent physiological details, and, pleading guilty, was lightly sentenced; but Bradlaugh and Mrs Besant took the matter up, in order to vindicate their ideas of liberty, and aggressively republished and circulated the pamphlet. The prosecution which resulted created considerable scandal. They were convicted and sentenced to a heavy fine and imprisonment, but the sentence was stayed and the indictment ultimately quashed on a technical point. The affair, however, had several side issues in the courts and led to much prejudice against the defendants, the distinction being ignored between a protest against the suppression of opinion and the championship of the particular opinions in question. Mrs Besant’s close alliance with Bradlaugh eventually terminated in 1886, when she drifted from secularism, first into socialistic and labour agitation and then into theosophy as a pupil of Mme Blavatsky. Bradlaugh himself took up politics with increasing fervour. He had been unsuccessful in standing for Northampton in 1868, but in 1880 he was returned by that constituency to parliament as an advanced Radical. A long and sensational parliamentary struggle now began. He claimed to be allowed to affirm under the Parliamentary Oaths Act, and the rejection of this pretension, and the refusal to allow him to take the oath on his professing his willingness to do so, terminated in Bradlaugh’s victory in 1886. But this result was not obtained without protracted scenes in the House, in which Lord Randolph Churchill took a leading part. When the long struggle was over, the public had gradually got used to Bradlaugh, and his transparent honesty and courageous contempt for mere popularity gained him increasing respect. Experience of public life in the House of Commons appeared to give him a more balanced view of things; and before he died, on the 30th of January 1891, the progress of events was such that it was beginning to be said of him that he was in a fair way to end as a Conservative. Hard, arrogant and dogmatic, with a powerful physique and a real gift for popular oratory, he was a natural 373 leader in causes which had society against them, but his sincerity was as unquestionable as his combativeness.

BRADLAUGH, CHARLES (1833-1891), was an English free-thinker and politician born in Hoxton, London, on September 26, 1833. His father worked as a poor solicitor’s clerk and had a small business as a law stationer, while his mother had been a nursemaid. At the age of twelve, he started working as an office boy for his father’s employer, and by fourteen, he was a wharf clerk and cashier for a coal merchant on City Road. Although he was baptized and raised in the Church of England, he eventually met a group of free-thinkers influenced by Richard Carlile. He was quickly labeled an “atheist” and lost his job. As a result, he turned to secularist circles, finding ways to make a living through various odd jobs while deepening his study of free thought. At the end of 1850, he enlisted as a soldier, but in 1853, his mother used her savings to buy him out. He then worked as a lawyer’s clerk and gradually gained recognition as a speaker promoting free thought under the name “Iconoclast.” From 1860, he led the National Reformer for several years and showed significant legal skill while defending the paper against government prosecution for alleged blasphemy and sedition during 1868-1869. Bradlaugh became infamous as a leading “infidel,” gaining support from those passionate about free speech and thought. He was a regular in court, where his ability to take the oath was frequently challenged, with his atheism and republican views cited as reasons for juries not to award damages for attacks on his character. In 1874, he met Mrs. Annie Besant (b. 1847), who later gained fame as a lecturer on socialism and theosophy. She started writing for the National Reformer and soon became his co-editor. In 1876, a Bristol publisher of an American pamphlet on population titled Fruits of Philosophy was charged for selling a work containing indecent physiological details. The publisher pleaded guilty and received a light sentence. However, Bradlaugh and Mrs. Besant advocated for their views on liberty, republishing and distributing the pamphlet. The ensuing prosecution caused a scandal. They were convicted and faced a hefty fine and imprisonment, but the sentence was stayed and the indictment later dismissed on a technicality. Nevertheless, the incident had several legal ramifications and fueled prejudice against the defendants, as the difference between protesting the suppression of opinions and supporting specific viewpoints was overlooked. Mrs. Besant's close collaboration with Bradlaugh ended in 1886 when she moved away from secularism towards socialist and labor activism, eventually becoming a student of Mme Blavatsky in theosophy. Meanwhile, Bradlaugh delved deeper into politics. After an unsuccessful run for Northampton in 1868, he was elected to parliament as an advanced Radical in 1880. A lengthy and dramatic political battle ensued. He sought permission to affirm under the Parliamentary Oaths Act, which was initially denied, but he ultimately prevailed in 1886. This victory, however, came after prolonged conflict in the House, with Lord Randolph Churchill playing a key role. By the end of this long struggle, the public had largely accepted Bradlaugh; his genuine honesty and bold disregard for mere popularity earned him increasing respect. His experiences in the House of Commons seemed to provide him with a more nuanced perspective, and by the time of his death on January 30, 1891, events were unfolding in such a way that some started to suggest he might soon align with Conservative ideals. Though he was often hard, arrogant, and dogmatic, with a strong physique and a real talent for public speaking, he was a natural leader for causes opposed by society, yet his sincerity was as undeniable as his combative spirit.

His Life was written, from a sympathetic point of view, with much interesting detail as to the history of secularism, by his daughter, Mrs Bradlaugh Bonner, and J.M. Robertson (1894).

His Life was written from a sympathetic perspective, filled with intriguing details about the history of secularism, by his daughter, Mrs. Bradlaugh Bonner, and J.M. Robertson (1894).


BRADLEY, GEORGE GRANVILLE (1821-1903), English divine and scholar, was born on the 11th of December 1821, his father, Charles Bradley, being at that time vicar of Glasbury, Brecon. He was educated at Rugby under Thomas Arnold, and at University College, Oxford, of which he became a fellow in 1844. He was an assistant master at Rugby from 1846 to 1858, when he succeeded G.E.L. Cotton as headmaster at Marlborough. In 1870 he was elected master of his old college at Oxford, and in August 1881 he was made dean of Westminster in succession to A.P. Stanley, whose pupil and intimate friend he had been, and whose biographer he became. Besides his Recollections of A.P. Stanley (1883) and Life of Dean Stanley (1892), he published Aids to writing Latin Prose Composition and Lectures on Job (1884) and Ecclesiastes (1885). He took part in the coronation of Edward VII., resigned the deanery in 1902, and died on the 13th of March 1903.

BRADLEY, GEORGE GRANVILLE (1821-1903), an English clergyman and scholar, was born on December 11, 1821. His father, Charles Bradley, was the vicar of Glasbury, Brecon at that time. He was educated at Rugby under Thomas Arnold and at University College, Oxford, where he became a fellow in 1844. He served as an assistant master at Rugby from 1846 to 1858, when he took over from G.E.L. Cotton as headmaster at Marlborough. In 1870, he was elected master of his old college at Oxford, and in August 1881, he became dean of Westminster, succeeding A.P. Stanley, who had been both his pupil and close friend, and whose biographer he later became. In addition to his Recollections of A.P. Stanley (1883) and Life of Dean Stanley (1892), he published Aids to Writing Latin Prose Composition and Lectures on Job (1884) and Ecclesiastes (1885). He participated in the coronation of Edward VII, resigned from the deanery in 1902, and passed away on March 13, 1903.

Dean Bradley’s family produced various other members distinguished in literature. His half-brother, Andrew Cecil Bradley (b. 1851), fellow of Balliol, Oxford, became professor of modern literature and history (1881) at University College, Liverpool, and in 1889 regius professor of English language and literature at Glasgow University; and he was professor of poetry at Oxford (1901-1906). Of Dean Bradley’s own children the most distinguished in literature were his son, Arthur Granville Bradley (b. 1850), author of various historical and topographical works; and especially his daughter, Mrs Margaret Louisa Woods (b. 1856), wife of the Rev. Henry George Woods, president of Trinity, Oxford (1887-1897), and master of the Temple (1904), London. Mrs Woods became well known for her accomplished verse (Lyrics and Ballads, 1889), largely influenced by Robert Bridges, and for her novels, of which her Village Tragedy (1887) was the earliest and strongest.

Dean Bradley’s family had several notable members in literature. His half-brother, Andrew Cecil Bradley (b. 1851), a fellow at Balliol, Oxford, became a professor of modern literature and history (1881) at University College, Liverpool, and in 1889 took on the role of regius professor of English language and literature at Glasgow University; he also served as a professor of poetry at Oxford from 1901 to 1906. Among Dean Bradley’s own children, his son, Arthur Granville Bradley (b. 1850), was recognized for his various historical and topographical works, but his most distinguished child was his daughter, Mrs Margaret Louisa Woods (b. 1856), who was married to Rev. Henry George Woods, president of Trinity, Oxford (1887-1897), and master of the Temple (1904), London. Mrs. Woods gained recognition for her skilled poetry (Lyrics and Ballads, 1889), heavily influenced by Robert Bridges, as well as her novels, with Village Tragedy (1887) being the earliest and most impactful.


BRADLEY, JAMES (1693-1762), English astronomer, was born at Sherborne in Gloucestershire in March 1693. He entered Balliol College, Oxford, on the 15th of March 1711, and took degrees of B.A. and M.A. in 1714 and 1717 respectively. His early observations were made at the rectory of Wanstead in Essex, under the tutelage of his uncle, the Rev. James Pound (1669-1724), himself a skilled astronomer, and he was elected a fellow of the Royal Society on the 6th of November 1718. He took orders on his presentation to the vicarage of Bridstow in the following year, and a small sinecure living in Wales was besides procured for him by his friend Samuel Molyneux (1689-1728). He, however, resigned his ecclesiastical preferments in 1721, on his appointment to the Savilian professorship of astronomy at Oxford, while as reader on experimental philosophy (1729-1760) he delivered 79 courses of lectures in the Ashmolean museum. His memorable discovery of the aberration of light (see Aberration) was communicated to the Royal Society in January 1729 (Phil. Trans. xxxv. 637). The observations upon which it was founded were made at Molyneux’s house on Kew Green. He refrained from announcing the supplementary detection of nutation (q.v.) until the 14th of February 1748 (Phil. Trans. xlv. 1), when he had tested its reality by minute observations during an entire revolution (18.6 years) of the moon’s nodes. He had meantime (in 1742) been appointed to succeed Edmund Halley as astronomer royal; his enhanced reputation enabled him to apply successfully for an instrumental outfit at a cost of £1000; and with an 8-foot quadrant completed for him in 1750 by John Bird (1700-1776), he accumulated at Greenwich in ten years materials of inestimable value for the reform of astronomy. A crown pension of £250 a year was conferred upon him in 1752. He retired in broken health, nine years later, to Chalford in Gloucestershire, and there died on the 13th of July 1762. The printing of his observations was delayed by disputes about their ownership; but they were finally issued from the Clarendon Press, Oxford, in two folio volumes (1798, 1805). The insight and industry of F.W. Bessel were, however, needed for the development of their fundamental importance.

BRADLEY, JAMES (1693-1762), an English astronomer, was born in Sherborne, Gloucestershire, in March 1693. He started his studies at Balliol College, Oxford, on March 15, 1711, earning his B.A. and M.A. degrees in 1714 and 1717, respectively. His early observations took place at the rectory of Wanstead in Essex, where he was guided by his uncle, the Rev. James Pound (1669-1724), who was also a skilled astronomer. He was elected a fellow of the Royal Society on November 6, 1718. The following year, he was ordained when he became vicar of Bridstow, and he also received a minor ecclesiastical position in Wales, thanks to his friend Samuel Molyneux (1689-1728). However, he resigned his church positions in 1721 when he was appointed to the Savilian professorship of astronomy at Oxford. As a reader in experimental philosophy (1729-1760), he delivered 79 lectures at the Ashmolean Museum. His significant discovery of the aberration of light (see Aberration) was reported to the Royal Society in January 1729 (Phil. Trans. xxxv. 637), based on observations he made at Molyneux’s home on Kew Green. He held off on announcing the additional detection of nutation (q.v.) until February 14, 1748 (Phil. Trans. xlv. 1), when he confirmed its existence through detailed observations during a complete cycle (18.6 years) of the moon’s nodes. In the meantime, in 1742, he was appointed as the astronomer royal, succeeding Edmund Halley. His increased reputation allowed him to successfully request funding for instruments costing £1000, and with an 8-foot quadrant finished for him in 1750 by John Bird (1700-1776), he gathered invaluable materials for the reform of astronomy at Greenwich over the next ten years. In 1752, he received a crown pension of £250 a year. He retired in poor health to Chalford in Gloucestershire, where he passed away on July 13, 1762. The publication of his observations was delayed by ownership disputes, but they were eventually released by the Clarendon Press, Oxford, in two folio volumes (1798, 1805). However, the insights and efforts of F.W. Bessel were needed to further develop their fundamental significance.

Rigaud’s Memoir prefixed to Miscellaneous Works and Correspondence of James Bradley, D.D. (Oxford, 1832), is practically exhaustive. Other sources of information are: New and General Biographical Dictionary, xii. 54 (1767); Biog. Brit. (Kippis); Fouchy’s “Éloge,” Paris Memoirs (1762), p. 231 (Histoire); Delambre’s Hist. de l’astronomie au 18me siècle, p. 413.

Rigaud’s Memoir at the beginning of Miscellaneous Works and Correspondence of James Bradley, D.D. (Oxford, 1832) is nearly complete. Other sources of information include: New and General Biographical Dictionary, xii. 54 (1767); Biog. Brit. (Kippis); Fouchy’s “Éloge,” Paris Memoirs (1762), p. 231 (Histoire); Delambre’s Hist. de l’astronomie au 18me siècle, p. 413.


BRADSHAW, GEORGE (1801-1853), English printer and publisher, was born at Windsor Bridge, Pendleton, Lancashire, on the 29th of July 1801. On leaving school he was apprenticed to an engraver at Manchester, eventually setting up on his own account in that city as an engraver and printer—principally of maps. His name was already known as the publisher of Bradshaw’s Maps of Inland Navigation, when in 1839, soon after the introduction of railways, he published, at sixpence, Bradshaw’s Railway Time Tables, the title being changed in 1840 to Bradshaw’s Railway Companion, and the price raised to one shilling. A new volume was issued at occasional intervals, a supplementary monthly time-sheet serving to keep the book up to date. In December 1841, acting on a suggestion made by his London agent, Mr W.J. Adams, Bradshaw reduced the price of his time-tables to the original sixpence, and began to issue them monthly under the title Bradshaw’s Monthly Railway Guide. In June 1847 was issued the first number of Bradshaw’s Continental Railway Guide, giving the time-tables of the Continental railways just as Bradshaw’s Monthly Railway Guide gave the time-tables of the railways of the United Kingdom. Bradshaw, who was a well-known member of the Society of Friends, and gave considerable time to philanthropic work, died in 1853.

BRADSHAW, GEORGE (1801-1853), an English printer and publisher, was born at Windsor Bridge, Pendleton, Lancashire, on July 29, 1801. After finishing school, he was apprenticed to an engraver in Manchester, eventually starting his own engraving and printing business in that city, primarily focused on maps. His name was already recognized as the publisher of Bradshaw’s Maps of Inland Navigation, when in 1839, shortly after railways were introduced, he published Bradshaw’s Railway Time Tables for sixpence. The title was changed in 1840 to Bradshaw’s Railway Companion, and the price was increased to one shilling. New volumes were released occasionally, with a supplementary monthly time-sheet to keep the book current. In December 1841, following a suggestion from his London agent, Mr. W.J. Adams, Bradshaw lowered the price of his time-tables back to the original sixpence and began issuing them monthly under the title Bradshaw’s Monthly Railway Guide. In June 1847, the first issue of Bradshaw’s Continental Railway Guide was published, which provided the time-tables for continental railways just as Bradshaw’s Monthly Railway Guide did for the UK railways. Bradshaw, who was a prominent member of the Society of Friends and dedicated significant time to charitable work, passed away in 1853.


BRADSHAW, HENRY (c. 1450-1513), English poet, was born at Chester. In his boyhood he was received into the Benedictine monastery of St Werburgh, and after studying with other novices of his order at Gloucester (afterwards Worcester) College, Oxford, he returned to his monastery at Chester. He wrote a Latin treatise De antiquitate et magnificentia Urbis Cestriae, which is lost, and a life of the patron saint of his monastery in English seven-lined stanza. This work was completed in the year of its author’s death, 1513, mentioned in “A balade to the auctour” printed at the close of the work. A second ballad describes him as “Harry Braddeshaa, of Chestre abbey monke.” Bradshaw disclaims the merit of originality and quotes the authorities from which he translates—Bede, William of Malmesbury, Giraldus Cambrensis, Alfred of Beverley, Henry of Huntingdon, Ranulph Higden, and especially the “Passionary” or life of the saint preserved in the monastery. The poem, therefore, which is defined by its editor, Dr Carl Horstmann, as a “legendary epic,” is rather a compilation than a translation. It contains a good deal of history beside the actual life of the saint. St Werburgh was the daughter of Wulfere, king of Mercia, and Bradshaw gives a description of the kingdom of Mercia, with a full account of its royal house. He relates the history of St Ermenilde and St Sexburge, mother and grandmother of Werburgh, who were successively abbesses of Ely. He does not neglect the miraculous elements of the story, but he is more attracted by historical fact than legend, and the second book narrates the Danish invasion of 875, and describes the history and antiquities of Chester, from its foundation by the legendary giant Leon Gaur, from which he derives the British name of Caerleon, down to the great fire which devastated the city in 1180, but was suddenly extinguished when the shrine of St Werburgh was carried in procession through the streets. The Holy Lyfe and History of saynt Werburge very frutefull for all Christen people to rede (printed by Richard Pynson, 1521) has been very variously estimated. Thomas Warton, who deals with Bradshaw at some length,1 quotes as the most splendid passage of the poem the description of the feast preceding Werburgh’s entry into the religious life. He considered Bradshaw’s versification “infinitely inferior to Lydgate’s worst manner.” Dr Horstmann, on the other hand, finds in the poem “original genius, of a truly epic tone, with a 374 native simplicity of feeling which sometimes reminds the reader of Homer.” Most readers will probably adopt a view between these extremes. Bradshaw expresses the humblest opinion of his own abilities, and he certainly had no delicate ear for rhythm. His sincerity is abundantly evident, and his piety is admitted even by John Bale2, hostile as he was to monkish writers. W. Herbert3 thought that a Lyfe of Saynt Radegunde, also printed by Pynson, was certainly by Bradshaw. The only extant copy is in the Britwell library.

BRADSHAW, HENRY (c. 1450-1513), English poet, was born in Chester. As a boy, he joined the Benedictine monastery of St Werburgh and studied with other novices at Gloucester (later Worcester) College, Oxford, before returning to his monastery in Chester. He wrote a Latin treatise De antiquitate et magnificentia Urbis Cestriae, which is lost, and an English life of the patron saint of his monastery in seven-lined stanzas. This work was finished in the year he died, 1513, as mentioned in “A balade to the auctour” printed at the end of the work. A second ballad refers to him as “Harry Braddeshaa, of Chestre abbey monke.” Bradshaw downplays his originality and cites the sources from which he translates—Bede, William of Malmesbury, Giraldus Cambrensis, Alfred of Beverley, Henry of Huntingdon, Ranulph Higden, and especially the “Passionary” or life of the saint kept in the monastery. Thus, the poem, defined by its editor, Dr Carl Horstmann, as a “legendary epic,” is more of a compilation than a translation. It includes a lot of history in addition to the actual life of the saint. St Werburgh was the daughter of Wulfere, king of Mercia, and Bradshaw gives a description of the kingdom of Mercia along with a detailed account of its royal lineage. He recounts the history of St Ermenilde and St Sexburge, mother and grandmother of Werburgh, who were successively abbesses of Ely. He pays attention to the miraculous aspects of the story but is more drawn to historical fact than legend, with the second book detailing the Danish invasion of 875 and recounting the history and antiquities of Chester, from its legendary foundation by the giant Leon Gaur, which he connects to the British name of Caerleon, up to the devastating fire in 1180 that was suddenly extinguished when the shrine of St Werburgh was carried in procession through the streets. The Holy Lyfe and History of saynt Werburge very frutefull for all Christen people to rede (printed by Richard Pynson, 1521) has been evaluated in very different ways. Thomas Warton, who discusses Bradshaw in detail, quotes the most impressive part of the poem as the description of the feast before Werburgh’s entry into monastic life. He deemed Bradshaw’s verse “infinitely inferior to Lydgate’s worst manner.” Dr Horstmann, however, finds “original genius, of a truly epic tone, with a native simplicity of feeling that sometimes reminds the reader of Homer” in the poem. Most readers will likely find a perspective between these extremes. Bradshaw holds a humble opinion of his own skills, and he definitely lacked a refined ear for rhythm. His sincerity is clear, and even John Bale, who was critical of monkish writers, acknowledges his piety. W. Herbert believed that a Lyfe of Saynt Radegunde, also printed by Pynson, was likely written by Bradshaw. The only remaining copy is in the Britwell library.

Pynson’s edition of the Holy Lyfe is very rare, only five copies being known. A reprint copying the original type was edited by Mr. Edward Hawkins for the Chetham Society in 1848, and by Dr Carl Hortsmann for the Early English Text Society in 1887.

Pynson’s edition of the Holy Lyfe is extremely rare, with only five copies known to exist. A reprint that replicated the original type was edited by Mr. Edward Hawkins for the Chetham Society in 1848, and by Dr. Carl Hortsmann for the Early English Text Society in 1887.


1 History of English Poetry (ed. W.C. Hazlitt, 1871; iii. pp. 140-149).

1 History of English Poetry (ed. W.C. Hazlitt, 1871; iii. pp. 140-149).

2 Scriptorum Illustrium, cant. ix. No. 17.

__A_TAG_PLACEHOLDER_0__ Illustrious Writings, chant. ix. No. 17.

3 Ames, Typographical Antiquities (ed. W. Herbert, 1785; i. p. 294).

3 Ames, Typographical Antiquities (ed. W. Herbert, 1785; i. p. 294).


BRADSHAW, HENRY (1831-1886), British scholar and librarian, was born in London on the 2nd of February 1831, and educated at Eton. He became a fellow of King’s College, Cambridge, and after a short scholastic career in Ireland he accepted an appointment in the Cambridge university library as an extra assistant. When he found that his official duties absorbed all his leisure he resigned his post, but continued to give his time to the examination of the MSS. and early printed books in the library. There was then no complete catalogue of these sections, and Bradshaw soon showed a rare faculty for investigations respecting old books and curious MSS. In addition to his achievements in black-letter bibliography he threw great light on ancient Celtic language and literature by the discovery, in 1857, of the Book of Deer, a manuscript copy of the Gospel in the Vulgate version, in which were inscribed old Gaelic charters. This was published by the Spalding Club in 1869. Bradshaw also discovered some Celtic glosses on the MS. of a metrical paraphrase of the Gospels by Juvencus. He made another find in the Cambridge library of considerable philological and historical importance. Cromwell’s envoy, Sir Samuel Morland (1625-1695), had brought back from Piedmont MSS. containing the earliest known Waldensian records, consisting of translations from the Bible, religious treatises and poems. One of the poems referred the work to the beginning of the 11th century, though the MSS. did not appear to be of earlier date than the 15th century. On this Morland had based his theory of the antiquity of the Waldensian doctrine, and, in the absence of the MSS., which were supposed to be irretrievably lost, the conclusion was accepted. Bradshaw discovered the MSS. in the university library, and found in the passage indicated traces of erasure. The original date proved to be 1400. Incidentally the correct date was of great value in the study of the history of the language. He had a share in exposing the frauds of Constantine Simonides, who had asserted that the Codex Sinaiticus brought by Tischendorf from the Greek monastery of Mount Sinai was a modern forgery of which he was himself the author. Bradshaw exposed the absurdity of these claims in a letter to the Guardian (January 26, 1863). In 1866 he made a valuable contribution to the history of Scottish literature by the discovery of 2200 lines on the siege of Troy incorporated in a MS. of Lydgate’s Troye Booke, and of the Legends of the Saints, an important work of some 40,000 lines. These poems he attributed, erroneously, as has since been proved, to Barbour (q.v.). Unfortunately Bradshaw allowed his attention to be distracted by a multiplicity of subjects, so that he has not left any literary work commensurate with his powers. The strain upon him was increased when he was elected (1867) university librarian, and as dean of his college (1857-1865) and praelector (1863-1868) he was involved in further routine duties. Besides his brilliant isolated discoveries in bibliography, he did much by his untiring zeal to improve the standard of library administration. He died very suddenly on the 10th of February 1886. His fugitive papers on antiquarian subjects were collected and edited by Mr F. Jenkinson in 1889.

BRADSHAW, HENRY (1831-1886), British scholar and librarian, was born in London on February 2, 1831, and educated at Eton. He became a fellow of King’s College, Cambridge, and after a brief academic career in Ireland, he took a position as an extra assistant in the Cambridge university library. When he realized that his official duties took up all his free time, he resigned but continued to focus on examining the manuscripts and early printed books in the library. At that time, there was no complete catalog for these collections, and Bradshaw quickly demonstrated a unique talent for researching old books and rare manuscripts. Besides his work in black-letter bibliography, he significantly advanced the study of ancient Celtic language and literature by discovering, in 1857, the Book of Deer, a manuscript version of the Gospel in the Vulgate translation, which included old Gaelic charters. This was published by the Spalding Club in 1869. Bradshaw also found some Celtic glosses on the manuscript of a metrical paraphrase of the Gospels by Juvencus. He made another important discovery in the Cambridge library related to philology and history. Cromwell's envoy, Sir Samuel Morland (1625-1695), had returned from Piedmont with manuscripts containing the earliest known Waldensian records, which included translations from the Bible, religious treatises, and poems. One poem suggested that the work dated back to the early 11th century, even though the manuscripts appeared to be from no earlier than the 15th century. Based on this, Morland theorized about the ancient origins of the Waldensian doctrine, and in the absence of the manuscripts, which were thought to be permanently lost, this conclusion was widely accepted. Bradshaw found the manuscripts in the university library and noted traces of erasure in the indicated passage. The original date turned out to be 1400. This correct dating was extremely valuable for studying the history of the language. He also helped expose the frauds of Constantine Simonides, who claimed that the Codex Sinaiticus, brought by Tischendorf from the Greek monastery of Mount Sinai, was a modern forgery that he himself had created. Bradshaw debunked these claims in a letter to the Guardian (January 26, 1863). In 1866, he contributed significantly to the history of Scottish literature by discovering 2,200 lines about the siege of Troy included in a manuscript of Lydgate’s Troye Booke and the Legends of the Saints, an important work of around 40,000 lines. He mistakenly attributed these poems to Barbour (q.v.), as later corrected. Unfortunately, Bradshaw spread his attention too thin across many topics, so he did not produce literary work that matched his abilities. The pressure increased when he was elected university librarian in 1867, and as dean of his college (1857-1865) and praelector (1863-1868), he became involved in even more routine obligations. Besides his remarkable individual discoveries in bibliography, he worked tirelessly to elevate library administration standards. He died unexpectedly on February 10, 1886. His unpublished papers on antiquarian subjects were compiled and edited by Mr. F. Jenkinson in 1889.

An excellent Memoir of Henry Bradshaw, by Mr G.W. Prothero, appeared in 1888. See also C.F. Newcombe, Some Aspects of the Work of Henry Bradshaw (1905).

An excellent Memoir of Henry Bradshaw by Mr. G.W. Prothero was published in 1888. Also, check out C.F. Newcombe's Some Aspects of the Work of Henry Bradshaw (1905).


BRADSHAW, JOHN (1602-1659), president of the “High Court of Justice” which tried Charles I., was the second son of Henry Bradshaw, of Marple and Wibersley in Cheshire. He was baptized on the 10th of December 1602, was educated at Banbury in Cheshire and at Middleton in Lancashire, studied subsequently with an attorney at Congleton, was admitted into Gray’s Inn in 1620, and was called to the bar in 1627, becoming a bencher in 1647. He was mayor of Congleton in 1637, and later high steward or recorder of the borough. According to Milton he was assiduous in his legal studies and acquired considerable reputation and practice at the bar. On the 21st of September 1643 he was appointed judge of the sheriff’s court in London. In October 1644 he was counsel with Prynne in the prosecution of Lord Maguire and Hugh Macmahon, implicated in the Irish rebellion, in 1645 for John Lilburne in his appeal to the Lords against the sentence of the Star Chamber, and in 1647 in the prosecution of Judge Jenkins. On the 8th of October 1646 he had been nominated by the Commons a commissioner of the great seal, but his appointment was not confirmed by the Lords. In 1647 he was made chief justice of Chester and a judge in Wales, and on the 12th of October 1648 he was presented to the degree of serjeant-at-law. On the 2nd of January 1649 the Lords threw out the ordinance for bringing the king to trial, and the small remnant of the House of Commons which survived Pride’s Purge, consisting of 53 independents, determined to carry out the ordinance on their own authority. The leading members of the bar, on the parliamentary as well as on the royalist side, having refused to participate in proceedings not only illegal and unconstitutional, but opposed to the plainest principles of equity, Bradshaw was selected to preside, and, after some protestations of humility and unfitness, accepted the office. The king refused to plead before the tribunal, but Bradshaw silenced every legal objection and denied to Charles an opportunity to speak in his defence. He continued after the king’s death to conduct, as lord president, the trials of the royalists, including the duke of Hamilton, Lord Capel, and Henry Rich, earl of Holland, all of whom he condemned to death, his behaviour being especially censured in the case of Eusebius Andrews, a royalist who had joined a conspiracy against the government. He received large rewards for his services. He was appointed in 1649 attorney-general of Cheshire and North Wales, and chancellor of the duchy of Lancaster, and was given a sum of £1000, together with confiscated estates worth £2000 a year. He had been nominated a member of the council of state on the 14th of February 1649, and on the 10th of March became president. He disapproved strongly of the expulsion of the Long Parliament, and on Cromwell’s coming subsequently to dismiss the council Bradshaw is said, on the authority of Ludlow, to have confronted him boldly, and denied his power to dissolve the parliament. An ardent republican, he showed himself ever afterwards an uncompromising adversary of Cromwell. He was returned for Stafford in the parliament of 1654, and spoke strongly against vesting power in a single person. He refused to sign the “engagement” drawn up by Cromwell, and in consequence withdrew from parliament and was subsequently suspected of complicity in plots against the government. He failed to obtain a seat in the parliament of 1656, and in August of the same year Cromwell attempted to remove him from the chief-justiceship of Cheshire. After the abdication of Richard Cromwell, Bradshaw again entered parliament, became a member of the council of state, and on the 3rd of June 1659 was appointed a commissioner of the great seal. His health, however, was bad, and his last public effort was a vehement speech, in the council, when he declared his abhorrence of the arrest of Speaker Lenthall. He died on the 31st of October 1659, and was buried in Westminster Abbey. His body was disinterred at the Restoration, and exposed on a gibbet along with those of Cromwell and Ireton. Bradshaw married Mary, daughter of Thomas Marbury of Marbury, Cheshire, but left no children.

BRADSHAW, JOHN (1602-1659), president of the “High Court of Justice” that tried Charles I, was the second son of Henry Bradshaw from Marple and Wibersley in Cheshire. He was baptized on December 10, 1602, educated in Banbury, Cheshire, and Middleton, Lancashire, studied later with a lawyer in Congleton, was admitted to Gray’s Inn in 1620, and called to the bar in 1627, becoming a bencher in 1647. He was mayor of Congleton in 1637 and later high steward or recorder of the borough. According to Milton, he was diligent in his legal studies and gained a solid reputation and practice at the bar. On September 21, 1643, he was appointed judge of the sheriff’s court in London. In October 1644, he served as counsel with Prynne in the prosecution of Lord Maguire and Hugh Macmahon, who were involved in the Irish rebellion, in 1645 for John Lilburne in his appeal to the Lords against the Star Chamber's sentence, and in 1647 in the prosecution of Judge Jenkins. On October 8, 1646, he was nominated by the Commons as a commissioner of the great seal, but his appointment wasn't confirmed by the Lords. In 1647, he became chief justice of Chester and a judge in Wales, and on October 12, 1648, he was awarded the degree of serjeant-at-law. On January 2, 1649, the Lords rejected the ordinance for bringing the king to trial, and the remaining members of the House of Commons, which survived Pride’s Purge and consisted of 53 independents, decided to proceed with the ordinance on their own authority. Leading members of the bar, both parliamentary and royalist, refused to take part in these actions, which were not only illegal and unconstitutional but also contradicting fundamental principles of fairness. Bradshaw was chosen to preside and, after some humble protests about his qualifications, accepted the position. The king refused to plead before the tribunal, but Bradshaw dismissed every legal objection and denied Charles the opportunity to defend himself. After the king’s execution, he continued to preside over the trials of royalists, including the Duke of Hamilton, Lord Capel, and Henry Rich, Earl of Holland, all of whom he condemned to death, with his conduct particularly criticized in the case of Eusebius Andrews, a royalist involved in a conspiracy against the government. He received substantial rewards for his work. In 1649, he was appointed attorney-general for Cheshire and North Wales, chancellor of the duchy of Lancaster, and received £1,000 along with confiscated estates worth £2,000 a year. He was nominated as a member of the council of state on February 14, 1649, and on March 10, he became president. He strongly opposed the expulsion of the Long Parliament, and when Cromwell later attempted to dismiss the council, it’s said, as reported by Ludlow, that Bradshaw confronted him directly, challenging his authority to dissolve the parliament. A passionate republican, he consistently remained a staunch opponent of Cromwell thereafter. He was elected for Stafford in the parliament of 1654 and spoke out against concentrating power in a single person. He declined to sign the “engagement” proposed by Cromwell, resulting in his withdrawal from parliament and subsequent suspicion of being involved in conspiracies against the government. He did not secure a seat in the parliament of 1656, and in August of that year, Cromwell tried to remove him from the chief-justiceship of Cheshire. After Richard Cromwell stepped down, Bradshaw returned to parliament, became a member of the council of state, and on June 3, 1659, was appointed a commissioner of the great seal. However, his health was poor, and his final public effort was a passionate speech in the council, where he expressed his outrage at the arrest of Speaker Lenthall. He died on October 31, 1659, and was buried in Westminster Abbey. His body was taken from the grave during the Restoration and displayed on a gallows along with the bodies of Cromwell and Ireton. Bradshaw married Mary, the daughter of Thomas Marbury of Marbury, Cheshire, but he had no children.


BRADWARDINE, THOMAS (c. 1290-1349), English archbishop, called “the Profound Doctor,” was born either at Hartfield in Sussex or at Chichester. He was educated at Merton 375 College, Oxford, where he took the degree of doctor of divinity, and acquired the reputation of a profound scholar, a skilful mathematician and an able divine. He was afterwards raised to the high offices of chancellor of the university and professor of divinity. From being chancellor of the diocese of London, he became chaplain and confessor to Edward III., whom he attended during his wars in France. On his return to England, he was successively appointed prebendary of Lincoln, archdeacon of Lincoln (1347), and in 1349 archbishop of Canterbury. He died of the plague at Lambeth on the 26th of August 1349, forty days after his consecration. Chaucer in his Nun’s Priest’s Tale ranks Bradwardine with St Augustine. His great work is a treatise against the Pelagians, entitled De causa Dei contra Pelagium et de virtute causarum, edited by Sir Henry Savile (London, 1618). He wrote also De Geometria speculativa (Paris, 1530); De Arithmetica practica (Paris, 1502); De Proportionibus (Paris, 1495; Venice, 1505); De Quadratura Circuli (Paris, 1495); and an Ars Memorativa, Sloane MSS. No. 3974 in the British Museum.

BRADWARDINE, THOMAS (c. 1290-1349), English archbishop, known as “the Profound Doctor,” was born either in Hartfield, Sussex, or in Chichester. He studied at Merton 375 College, Oxford, where he earned a doctorate in divinity and gained a reputation as a deep scholar, skilled mathematician, and capable theologian. He later held prominent positions as chancellor of the university and professor of divinity. After serving as chancellor of the diocese of London, he became chaplain and confessor to Edward III., accompanying him during the wars in France. Upon returning to England, he was appointed prebendary of Lincoln, archdeacon of Lincoln (1347), and in 1349 archbishop of Canterbury. He died of the plague at Lambeth on August 26, 1349, just forty days after his consecration. Chaucer in his Nun’s Priest’s Tale places Bradwardine alongside St. Augustine. His major work is a treatise against the Pelagians titled De causa Dei contra Pelagium et de virtute causarum, edited by Sir Henry Savile (London, 1618). He also wrote De Geometria speculativa (Paris, 1530); De Arithmetica practica (Paris, 1502); De Proportionibus (Paris, 1495; Venice, 1505); De Quadratura Circuli (Paris, 1495); and an Ars Memorativa, Sloane MSS. No. 3974 in the British Museum.

See Quétif-Échard, Script. Praedic. (1719), i. 744; W.F. Hook, Lives of the Archbishops of Canterbury, vol. iv.

See Quétif-Échard, Script. Praedic. (1719), i. 744; W.F. Hook, Lives of the Archbishops of Canterbury, vol. iv.


BRADY, NICHOLAS (1659-1726), Anglican divine and poet, was born at Bandon, Co. Cork, on the 28th of October 1659. He received his education at Westminster school, and at Christ Church, Oxford; but he graduated at Trinity College, Dublin. He took orders, and in 1688 was made a prebendary of Cork. He was a zealous promoter of the Revolution and suffered in consequence. When the troubles broke out in Ireland in 1690, Brady, by his influence, thrice prevented the burning of the town of Bandon, after James II. had given orders for its destruction; and the same year he was employed by the people of Bandon to lay their grievances before the English parliament. He soon afterwards settled in London, where he obtained various preferments. At the time of his death, on the 20th of May 1726, he held the livings of Clapham and Richmond. Brady’s best-known work is his metrical version of the Psalms, in which Nahum Tate collaborated with him. It was licensed in 1696, and largely ousted the old version of T. Sternhold and J. Hopkins. He also translated Virgil’s Aeneid, and wrote several smaller poems and dramas, as well as sermons.

BRADY, NICHOLAS (1659-1726), Anglican priest and poet, was born in Bandon, Co. Cork, on October 28, 1659. He was educated at Westminster School and Christ Church, Oxford, but graduated from Trinity College, Dublin. He was ordained and became a prebendary of Cork in 1688. A strong supporter of the Revolution, he faced consequences for his beliefs. When the troubles erupted in Ireland in 1690, Brady used his influence to prevent the town of Bandon from being burned three times after James II ordered its destruction; that same year, he was tasked by the people of Bandon to present their grievances to the English Parliament. Shortly afterward, he moved to London, where he gained various positions. At the time of his death on May 20, 1726, he was serving in the churches of Clapham and Richmond. Brady's most famous work is his metrical version of the Psalms, created in collaboration with Nahum Tate. It was licensed in 1696 and largely replaced the earlier version by T. Sternhold and J. Hopkins. He also translated Virgil’s Aeneid and wrote several shorter poems, plays, and sermons.


BRAEKELEER, HENRI JEAN AUGUSTIN DE (1840-1888), Belgian painter, was born at Antwerp. He was trained by his father, a genre painter, and his uncle, Baron Henri Leys, and devoted himself to scenes of everyday Antwerp life. The first pictures he exhibited, “The Laundry” (Van Cutsem collection, Brussels), and “The Coppersmith’s Workshop” (Vleeshovwer collection, Antwerp), were shown at the Antwerp exhibition in 1861. He received the gold medal at Brussels in 1872 for “The Geographer” and “The Lesson” (both in the Brussels gallery); the gold medal at Vienna in 1873 for “The Painter’s Studio” and “Grandmother’s Birthday”; and the medal of honour at the Exposition Universelle at Amsterdam for “The Pilot House.” Among his more notable works are “A Shoemaker” (1862), “A Tailor’s Workroom” (1863), “A Gardener” (1864, Antwerp gallery), “Interior of a Church” (1866), “Interior, Flanders” (1867), “Woman spinning” (1869), “Man reading” (1871), “The rue du Serment, Antwerp” (1875), “A Copperplate Printer,” “The Sailor’s Return,” “The Man at the Window” (Couteaux collection, Brussels), “The Horn-blower” (Couteaux collection), “Man retouching a Picture” (Couteaux collection), “The Potters” (Marlier collection, Brussels), “Staircase in the Hydraulic House at Antwerp” (Marlier collection), and “The Brewer’s House at Antwerp” (Marlier collection). The last, better known as “A Man sitting,” is generally regarded as his masterpiece. As a lithographer and etcher, his work resembles that of Henri Leys. Towards the end of his life de Braekeleer did some dot painting (pointillisme), in which he achieved admirable effects of light.

BRAEKELEER, HENRI JEAN AUGUSTIN DE (1840-1888), Belgian painter, was born in Antwerp. He was trained by his father, a genre painter, and his uncle, Baron Henri Leys, and focused on scenes from everyday life in Antwerp. The first paintings he exhibited, “The Laundry” (Van Cutsem collection, Brussels) and “The Coppersmith’s Workshop” (Vleeshouwers collection, Antwerp), were shown at the Antwerp exhibition in 1861. He won the gold medal in Brussels in 1872 for “The Geographer” and “The Lesson” (both in the Brussels gallery); the gold medal in Vienna in 1873 for “The Painter’s Studio” and “Grandmother’s Birthday”; and the medal of honor at the Exposition Universelle in Amsterdam for “The Pilot House.” Among his more notable works are “A Shoemaker” (1862), “A Tailor’s Workroom” (1863), “A Gardener” (1864, Antwerp gallery), “Interior of a Church” (1866), “Interior, Flanders” (1867), “Woman Spinning” (1869), “Man Reading” (1871), “The Rue du Serment, Antwerp” (1875), “A Copperplate Printer,” “The Sailor’s Return,” “The Man at the Window” (Couteaux collection, Brussels), “The Horn-blower” (Couteaux collection), “Man Retouching a Picture” (Couteaux collection), “The Potters” (Marlier collection, Brussels), “Staircase in the Hydraulic House at Antwerp” (Marlier collection), and “The Brewer’s House at Antwerp” (Marlier collection). The last, more commonly known as “A Man Sitting,” is generally regarded as his masterpiece. As a lithographer and etcher, his work is similar to that of Henri Leys. Towards the end of his life, de Braekeleer experimented with dot painting (pointillism), in which he achieved impressive effects of light.


BRAEMAR, a district in S.W. Aberdeenshire, Scotland, extending from Ballater in the E. to Glen Dee in the W., a distance of 24 m. with a breadth varying from 3 to 6 m. It is drained throughout by the river Dee, both banks of which are bounded by hills varying from 1000 to nearly 3000 ft. in height. The whole area is distinguished by typical Highland scenery, and is a resort alike for sportsmen and tourists. The villages and clachans (Gaelic for hamlet) being situated at an altitude of from 600 to more than 1000 ft. above the sea, the air is everywhere pure and bracing. The deer forests comprise the royal forests of Balmoral and Ballochbuie, Glen Ey Forest, Mar Forest and Invercauld Forest. At various points on either side of the Dee, granite castles, mansions and lodges have been built, mostly in the Scottish baronial style, and all effectively situated with reference to the wooded hills or the river. The chief of these are Balmoral and Abergeldie Castles belonging to the crown, Invercauld House, Braemar Castle, Mar Lodge and Old Mar Lodge. Castleton of Braemar is the foremost of the villages, being sometimes styled the capital of the Deeside Highlands. Its public buildings include halls erected by the duke of Fife and Colonel Farquharson of Invercauld to commemorate the Victorian jubilee of 1887. Not far from the spot where the brawling Clunie joins the Dee the earl of Mar raised the standard of revolt in 1715. His seat, Braemar Castle, reputed to be a hunting-lodge of Malcolm Canmore, was forfeit along with the estates. The new castle built by the purchasers in 1720 was acquired at a later date by Farquharson of Invercauld, who gave government the use of it during the pacification of the Highlands after the battle of Culloden in 1746. Population of Crathie and Braemar (1901) 1452.

BRAEMAR, is a district in southwest Aberdeenshire, Scotland, stretching from Ballater in the east to Glen Dee in the west, a distance of 24 miles with a width ranging from 3 to 6 miles. The area is drained by the River Dee, with both banks bordered by hills that rise from 1,000 to nearly 3,000 feet. This entire region is characterized by classic Highland scenery and is a popular destination for both sports enthusiasts and visitors. The villages and small settlements, known as clachans (Gaelic for hamlet), sit at elevations of 600 to over 1,000 feet above sea level, ensuring that the air is fresh and invigorating. The deer forests include the royal forests of Balmoral and Ballochbuie, Glen Ey Forest, Mar Forest, and Invercauld Forest. At various places along the Dee, granite castles, mansions, and lodges have been constructed, mostly in the Scottish baronial style and effectively set against the wooded hills or the river. The most notable of these are Balmoral and Abergeldie Castles, owned by the crown, as well as Invercauld House, Braemar Castle, Mar Lodge, and Old Mar Lodge. Castleton of Braemar is the largest village, sometimes referred to as the capital of the Deeside Highlands. Its public buildings include halls built by the Duke of Fife and Colonel Farquharson of Invercauld to commemorate the Victorian jubilee in 1887. Not far from where the rushing Clunie River meets the Dee, the Earl of Mar raised the standard of revolt in 1715. His residence, Braemar Castle, is believed to have been a hunting lodge of Malcolm Canmore and was forfeited along with the estates. The new castle constructed by the buyers in 1720 was later acquired by Farquharson of Invercauld, who allowed the government to use it during the pacification of the Highlands after the battle of Culloden in 1746. The population of Crathie and Braemar in 1901 was 1,452.


BRAG, a very old game of cards, probably evolved from the ancient Spanish primero, played by five or six, or more players. It is the ancestor of poker. A full pack is used, the cards ranking as at whist, with certain exceptions. There are no trumps. Each player receives three cards and puts up three stakes. The last round is dealt face upwards: the holder of the highest card irrespective of suits wins the first stake from all the players. In the case of equality the elder hand wins, but the ace of diamonds is always a winning card. For the second stake the players brag or bet against each other, if they hold either a pair, or a pair-royal (three cards of the same rank). Pairs and pairs-royal take precedence according to the value of the cards composing them, but any pair-royal beats any pair. The knave of clubs may be counted as any card, e.g. two twos and the knave of clubs rank as a pair-royal in twos; two aces and the knave as a pair-royal in aces. Sometimes the knave of diamonds is allowed the same privilege, but is inferior to the club knave; e.g. two threes and the club would beat the other two threes and the diamond. Players who accept another’s brag must cover his. bet and offer another. The third stake is won by the player whose cards make 31 or are nearest to 31 by their pips, aces and court counting ten; but the ace may by arrangement count as 1 or 11. Players may draw from the stock, losing if they over-draw. If one player wins all three stakes, he may receive the value of another stake, or of two or three stakes, all round, as arranged. The deal passes as at whist. Each player should have the same number of deals before the game is abandoned.

BRAG, is a very old card game, likely derived from the ancient Spanish game primero, played by five or six or more players. It’s a predecessor of poker. A full deck is used, with the cards ranked like in whist, with some exceptions. There are no trumps. Each player gets three cards and places three stakes. The last round is dealt face up: the player with the highest card, regardless of suits, wins the first stake from all the players. If there’s a tie, the player with the elder hand wins, but the ace of diamonds is always a winning card. For the second stake, players brag or bet against each other if they have either a pair or a pair-royal (three cards of the same rank). Pairs and pairs-royal are prioritized based on the value of the cards, but any pair-royal beats any pair. The knave of clubs can be counted as any card; for example, two twos and the knave of clubs count as a pair-royal in twos, while two aces and the knave count as a pair-royal in aces. Sometimes, the knave of diamonds is also given this privilege, but it is lower than the knave of clubs; for instance, two threes and the club would beat the other two threes and the diamond. Players who accept another’s brag must cover their bet and make an additional offer. The third stake is won by the player whose cards total 31 or are closest to 31 by their pips, with aces and court cards counting as ten; however, aces can be counted as either 1 or 11 based on agreement. Players can draw from the stock, losing if they draw too high. If one player wins all three stakes, they can receive the value of another stake, or two or three stakes, all around, as arranged. The deal rotates like in whist. Each player should have an equal number of deals before the game is over.


BRAGA, a city of northern Portugal, formerly included in the province of Entre Minho e Douro, situated on the right-bank of the small river Deste near its source, and at the head of a railway from Oporto. Pop. (1900) 24,202. Braga, which ranks after Lisbon and Oporto as the third city of the kingdom, is the capital of an administrative district, and an archiepiscopal see. Its cathedral, founded in the 12th century, was rebuilt during the 16th century in the blend of Moorish and florid Gothic styles known as Manoellian. It contains several tombs of considerable historical interest, some fine woodwork carved in the 15th century, and a collection of ancient vestments, plate and other objects of art. Among the other churches Santa Cruz is noteworthy for its handsome façade, which dates from 1642. There are several convents, an archiepiscopal palace, a library, containing many rare books and manuscripts, an orphan asylum, and a large hospital; also the ruins of a theatre, a temple and an aqueduct of Roman workmanship, and a great variety of minor antiquities of different ages. The principal manufactures are firearms, jewelry, cutlery, cloth and felt hats. Large cattle fairs are held in June and September, for cattle-breeding and 376 dairy-farming are among the foremost local industries. On a hill about 3 m. E. by S. stands the celebrated sanctuary of Bom Jesus, or Bom Jesus do Monte, visited at Whitsuntide by many thousands of pilgrims, who do public penance as they ascend to the shrine; and about 1 m. beyond it is Mount Sameiro (2535 ft.), crowned by a colossal statue of the Virgin Mary, and commanding a magnificent view of the mountainous country which culminates in the Serra do Gerez, on the north-east.

BRAGA, is a city in northern Portugal, previously part of the Entre Minho e Douro province, located on the right bank of the small river Deste near its source, and at the beginning of a railway from Oporto. Population (1900) 24,202. Braga is the third largest city in the kingdom after Lisbon and Oporto, serving as the capital of an administrative district and an archiepiscopal see. Its cathedral, founded in the 12th century, was reconstructed in the 16th century in a mix of Moorish and ornate Gothic styles known as Manueline. It houses several historically significant tombs, impressive woodwork carved in the 15th century, and a collection of ancient vestments, silverware, and other art objects. Among the other churches, Santa Cruz stands out for its beautiful façade, which dates back to 1642. There are several convents, an archiepiscopal palace, a library with many rare books and manuscripts, an orphanage, and a large hospital; along with the ruins of a theater, a temple, and a Roman aqueduct, as well as a wide variety of minor antiquities from different periods. The main industries include firearms, jewelry, cutlery, cloth, and felt hats. Large cattle fairs take place in June and September, as cattle breeding and dairy farming are key local industries. On a hill about 3 miles E. by S. sits the famous sanctuary of Bom Jesus, or Bom Jesus do Monte, which attracts thousands of pilgrims during Whitsun, who perform public penance as they climb to the shrine; and about a mile beyond is Mount Sameiro (2535 ft.), topped by a colossal statue of the Virgin Mary, offering a stunning view of the mountainous landscape culminating in the Serra do Gerez to the northeast.

Braga is the Roman Bracara Augusta, capital of the Callaici Bracarii, or Bracarenses, a tribe who occupied what is now Galicia and northern Portugal. Early in the 5th century it was taken by the Suevi; but about 485 it passed into the hands of the Visigothic conquerors of Spain, whose renunciation of the Arian and Priscillianist heresies, at two synods held here in the 6th century, marks the origin of its ecclesiastical greatness. The archbishops of Braga retain the title of primate of Portugal, and long claimed supremacy over the Spanish church also; but their authority was never accepted throughout Spain. From the Moors, who captured Braga early in the 8th century, the city was retaken in 1040 by Ferdinand I., king of Castile and Leon; and from 1093 to 1147 it was the residence of the Portuguese court.

Braga is the Roman Bracara Augusta, the capital of the Callaici Bracarii, or Bracarenses, a tribe that lived in what is now Galicia and northern Portugal. In the early 5th century, it was captured by the Suevi; but around 485, it came under the control of the Visigothic conquerors of Spain. Their rejection of Arian and Priscillianist heresies at two synods held here in the 6th century marks the beginning of its ecclesiastical significance. The archbishops of Braga hold the title of primate of Portugal and have long claimed authority over the Spanish church as well, although their influence was never widely accepted across Spain. The Moors captured Braga in the early 8th century, but it was retaken in 1040 by Ferdinand I, king of Castile and Leon. From 1093 to 1147, it served as the residence of the Portuguese court.

The administrative district of Braga coincides with the central part of the province of Entre Minho e Douro (q.v.). Pop. (1900) 357,159. Area, 1040 sq. m.

The administrative district of Braga corresponds to the central part of the province of Entre Minho e Douro (q.v.). Population (1900) 357,159. Area, 1040 sq. m.


BRAGANZA (Bragança), the capital of an administrative district formerly included in the province of Traz-os-Montes, Portugal; situated in the north-eastern extremity of the kingdom, on a branch of the river Sabor, 8 m. S. of the Spanish frontier. Pop. (1900) 5535. Braganza is an episcopal city. It consists of a walled upper town, containing the cathedral college and hospital, and of a lower or modern town. Large tracts of the surrounding country are uncultivated, partly because railway communication is lacking and the roads are bad. Except farming, the chief local industry is silkworm-rearing and the manufacture of silk. The administrative district of Braganza coincides with the eastern part of Traz-os-Montes (q.v.). Pop. (1900) 185,162; area, 2513 sq. m.

BRAGANZA (Bragança), the capital of an administrative district that was once part of the province of Traz-os-Montes, Portugal; located in the northeastern corner of the country, on a branch of the river Sabor, 8 miles south of the Spanish border. Population (1900) 5,535. Braganza is a city with an episcopal seat. It features a walled upper town that includes the cathedral, college, and hospital, as well as a lower, more modern town. Large areas of the surrounding land are uncultivated, partly due to a lack of railway connections and poor road conditions. Besides agriculture, the main local industry is sericulture and silk production. The administrative district of Braganza matches the eastern part of Traz-os-Montes (q.v.). Population (1900) 185,162; area, 2,513 sq. miles.

The city gave its name to the family of Braganza, members of which were rulers of Portugal from 1640 to 1853, and emperors of Brazil from 1822 to 1889. This family is descended from Alphonso (d. 1461), a natural son of John I., king of Portugal (d. 1433), who was a natural son of King Peter I., and consequently belonged to the Portuguese branch of the Capetian family. Alphonso was made duke of Braganza in 1442, and in 1483 his grandson, Duke Ferdinand II., lost his life through heading an insurrection against King John II. In spite of this Ferdinand’s descendants acquired great wealth, and several of them held high office under the kings of Portugal. Duke John I. (d. 1583) married into the royal family, and when King Henry II. died without direct heirs in 1580, he claimed the crown of Portugal in opposition to Philip II. of Spain. John, however, was unsuccessful, but, when the Portuguese threw off the Spanish dominion in 1640, his grandson, John II., duke of Braganza, became king as John IV. In 1807, when Napoleon declared the throne of Portugal vacant, King John VI. fled to Brazil; but he regained his inheritance after the fall of Napoleon in 1814, although he did not return to Europe until 1821, when he left his elder son Peter to govern Brazil. In 1822 a revolution established the independence of Brazil with Peter as emperor. In 1826 Peter became king of Portugal on the death of his father; but he at once resigned the crown to his young daughter Maria, and appointed his brother Miguel to act as regent. Miguel soon declared himself king, but after a stubborn struggle was driven from the country in 1833, after which Maria became queen. Maria married for her second husband Ferdinand (d. 1851), son of Francis, duke of Saxe-Coburg; and when she died in 1853 the main Portuguese branch of the family became extinct. Maria was succeeded by her son Louis I., father of Charles I., who ascended the throne of Portugal in 1889. The empire of Brazil descended on the death of Peter I. to his son Peter II., who was expelled from the country in 1889. When Peter died in 1891 this branch of the family also became extinct in the male line. His only child, Isabella, married Louis Gaston of Orleans, count of Eu. The exiled king, Miguel, founded a branch of the family of Braganza which settled in Bavaria, and various noble families in Portugal are descended from cadets of this house. The title of duke of Braganza is now borne by the eldest son of the king of Portugal.

The city gave its name to the Braganza family, who ruled Portugal from 1640 to 1853 and were emperors of Brazil from 1822 to 1889. This family is descended from Alphonso (d. 1461), a natural son of John I, King of Portugal (d. 1433), who was a natural son of King Peter I, thus linking them to the Portuguese branch of the Capetian family. Alphonso was made Duke of Braganza in 1442, and in 1483, his grandson, Duke Ferdinand II, lost his life leading a rebellion against King John II. Despite this, Ferdinand's descendants gained significant wealth, and several served in high offices under the kings of Portugal. Duke John I (d. 1583) married into the royal family, and when King Henry II died without direct heirs in 1580, he claimed the crown of Portugal against Philip II of Spain. John was unsuccessful, but when the Portuguese revolted against Spanish rule in 1640, his grandson, John II, Duke of Braganza, became king as John IV. In 1807, when Napoleon declared the Portuguese throne vacant, King John VI fled to Brazil; however, he regained his throne after Napoleon's fall in 1814, though he didn’t return to Europe until 1821, leaving his elder son Peter to govern Brazil. In 1822, a revolution established Brazil's independence with Peter as emperor. In 1826, Peter became King of Portugal upon his father's death; however, he quickly resigned the crown to his young daughter Maria and appointed his brother Miguel as regent. Miguel soon declared himself king, but after a fierce struggle, he was expelled from the country in 1833, after which Maria became queen. Maria married Ferdinand (d. 1851), the son of Francis, Duke of Saxe-Coburg; and when she died in 1853, the main Portuguese branch of the family became extinct. Maria was succeeded by her son Louis I, the father of Charles I, who became King of Portugal in 1889. The Brazilian empire passed to Peter II, Peter I’s son, who was expelled from the country in 1889. When Peter died in 1891, this branch of the family also became extinct in the male line. His only child, Isabella, married Louis Gaston of Orleans, Count of Eu. The exiled king, Miguel, established a branch of the Braganza family that settled in Bavaria, and various noble families in Portugal are descended from members of this house. The title of Duke of Braganza is now held by the eldest son of the King of Portugal.


BRAGG, BRAXTON (1817-1876), American soldier, was born in Warren county, North Carolina, on the 22nd of March 1817. He graduated at the United States military academy in 1837, and as an artillery officer served in the Seminole wars of 1837 and 1841, and under General Taylor in Mexico. For gallant conduct at Fort Brown, Monterey and Buena Vista, he received the brevets of captain, major and lieutenant-colonel. He resigned from the regular army on the 3rd of January 1856, and retired to his plantation in Louisiana. From 1859 to 1861 he was commissioner of the board of public works of the state. When in 1861 the Civil War began, Bragg was made a brigadier-general in the Confederate service, and assigned to command at Pensacola. In February 1862, having meanwhile become major-general, he took up a command in the Army of the Mississippi, and he was present at the battle of Shiloh (April). The vacancy created by the death of Sidney Johnston at that battle was filled by the promotion of Bragg to full general’s rank, and he succeeded General Beauregard when that officer retired from the Western command. In the autumn of 1862 he led a bold advance from Eastern Tennessee across Kentucky to Louisville, but after temporary successes he was forced to retire before Buell, and after the battle of Perryville (8th October) retired into Tennessee. Though the material results of his campaign were considerable, he was bitterly censured, and his removal from his command was urged. But the personal favour of Jefferson Davis kept him, as it had placed him, at the head of the central army, and on the 31st of December 1862 and 2nd of January 1863 he fought the indecisive battle of Murfreesboro (or Stone river) against Rosecrans, Buell’s successor. In the campaign of 1863 Rosecrans constantly outmanoeuvred the Confederates, and forced them back to the border of Georgia. Bragg, however, inflicted a crushing defeat on his opponent at Chickamauga (September 19-20) and for a time besieged the Union forces in Chattanooga. But enormous forces under Grant were concentrated upon the threatened spot, and the great battle of Chattanooga (November 23-25) ended in the rout of the Confederates. Bragg was now deprived of his command, but President Davis made him his military adviser, and in that capacity he served during 1864. In the autumn of that year he led an inferior force from North Carolina to Georgia to oppose Sherman’s march. In February 1865 he joined Johnston, and he was thus included in the surrender of that officer to Sherman. After the war he became chief engineer to the state of Alabama, and supervised improvements in Mobile harbour. He died suddenly at Galveston, Texas, on the 27th of September 1876. General Bragg, in spite of his want of success, was unquestionably a brave and skilful officer. But he was a severe martinet, and rarely in full accord with the senior officers under his orders, the consequent friction often acting unfavourably on the conduct of the operations.

BRAGG, BRAXTON (1817-1876), an American soldier, was born in Warren County, North Carolina, on March 22, 1817. He graduated from the United States Military Academy in 1837 and, as an artillery officer, served in the Seminole Wars of 1837 and 1841, as well as under General Taylor in Mexico. For his brave actions at Fort Brown, Monterey, and Buena Vista, he received promotions to captain, major, and lieutenant colonel. He resigned from the regular army on January 3, 1856, and returned to his plantation in Louisiana. From 1859 to 1861, he served as a commissioner on the state board of public works. When the Civil War began in 1861, Bragg was appointed a brigadier general in the Confederate Army and assigned to command in Pensacola. In February 1862, after becoming a major general, he took command in the Army of the Mississippi and participated in the Battle of Shiloh in April. Following the death of Sidney Johnston in that battle, Bragg was promoted to full general and succeeded General Beauregard when he stepped down from Western command. In the fall of 1862, he made a bold advance from Eastern Tennessee across Kentucky to Louisville, but after some temporary successes, he had to retreat before Buell and withdrew to Tennessee after the Battle of Perryville on October 8. Although he achieved significant results during his campaign, he faced harsh criticism, and there were calls for his removal. However, the personal favor of Jefferson Davis kept him in command, just as it had initially placed him at the head of the central army. On December 31, 1862, and January 2, 1863, he fought the inconclusive Battle of Murfreesboro (or Stone River) against Rosecrans, who had replaced Buell. In 1863, Rosecrans consistently outmaneuvered the Confederates, pushing them back to the Georgia border. Nevertheless, Bragg dealt a heavy defeat to his opponent at Chickamauga on September 19-20 and briefly besieged the Union forces in Chattanooga. However, massive forces under Grant gathered at the threatened location, and the crucial Battle of Chattanooga from November 23-25 ended in the Confederates' rout. Bragg was relieved of his command, but President Davis appointed him as his military adviser, a role he held throughout 1864. In the fall of that year, he led a smaller force from North Carolina to Georgia to counter Sherman’s march. In February 1865, he joined Johnston and was included in that officer's surrender to Sherman. After the war, he became the chief engineer for the state of Alabama and oversaw improvements in Mobile harbor. He died unexpectedly in Galveston, Texas, on September 27, 1876. Despite his lack of success, General Bragg was undeniably a brave and skilled officer. However, he was a strict disciplinarian and often did not see eye to eye with the senior officers under his command, which created friction that negatively affected the operations.

His brother, Thomas Bragg (1810-1872), was governor of North Carolina 1855-1859, U.S. senator 1859-1861, and attorney-general in the Confederate cabinet from Nov. 1861 to March 1862.

His brother, Thomas Bragg (1810-1872), was the governor of North Carolina from 1855 to 1859, a U.S. senator from 1859 to 1861, and served as attorney general in the Confederate cabinet from November 1861 to March 1862.


BRAGI, in Scandinavian mythology, the son of Odin, and god of wisdom, poetry and eloquence. At the Scandinavian sacrificial feasts a horn consecrated to Bragi was used as a drinking-cup by the guests, who then vowed to do some great deed which would be worthy of being immortalized in verse.

BRAGI, in Scandinavian mythology, is the son of Odin and the god of wisdom, poetry, and eloquence. During Scandinavian sacrificial feasts, a horn dedicated to Bragi was used as a drinking cup by the guests, who then promised to accomplish some great feat that would be deserving of being immortalized in poetry.


BRAHAM, JOHN (c. 1774-1856), English vocalist, was born in London about 1774, of Jewish parentage, his real name being Abraham. His father and mother died when he was quite young. Having received lessons in singing from an Italian artist named Leoni, he made his first appearance in public at Covent Garden theatre on the 21st of April 1787, when he sang “The soldier tired of war’s alarms” and “Ma chère arrive.” On the breaking of his voice, he had to support himself by teaching the 377 pianoforte. In a few years, however, he recovered his voice, which proved to be a tenor of exceptionally pure and rich quality. His second début was made in 1794 at the Bath concerts, to the conductor of which, Rauzzini, he was indebted for careful training extending over a period of more than two years. In 1796 he reappeared in London at Drury Lane in Storace’s opera of Mahmoud. Such was his success that he obtained an engagement the next year to appear in the Italian opera house in Grétry’s Azor et Zémire. He also sang in oratorios and was engaged for the Three Choir festival at Gloucester. With the view of perfecting himself in his art he set out for Italy in the autumn of 1797. On the way he gave some concerts at Paris, which proved so successful that he was induced to remain there for eight months. His career in Italy was one of continuous triumph; he appeared in all the principal opera-houses, singing in Milan, Genoa, Leghorn and Venice. His compass embraced about nineteen notes, his management of the falsetto being perfect. In 1801 he returned to his native country, and appeared once more at Covent Garden in the opera Chains of the Heart, by Mazzinghi and Reeve. So great was his popularity that an engagement he had made when abroad to return after a year to Vienna was renounced, and he remained henceforward in England. In 1824 he sang the part of Max in the English version of Weber’s Der Freischütz, and he was the original Sir Huon in that composer’s Oberon in 1826. Braham made two unfortunate speculations on a large scale, one being the purchase of the Colosseum in the Regent’s Park in 1831 for £40,000, and the other the erection of the St James’s theatre at a cost of £26,000 in 1836. In 1838 he sang the part of William Tell at Drury Lane, and in 1839 the part of Don Giovanni. His last public appearance was at a concert in March 1852. He died on the 17th of February 1856. There is, perhaps, no other case upon record in which a singer of the first rank enjoyed the use of his voice so long; between Braham’s first and last public appearances considerably more than sixty years intervened, during forty of which he held the undisputed supremacy alike in opera, oratorio and the concert-room. Braham was the composer of a number of vocal pieces, which being sung by himself had great temporary popularity, though they had little intrinsic merit, and are now deservedly forgotten. A partial exception must be made in favour of “The Death of Nelson,” originally written in 1811 as a portion of the opera The American; this still keeps its place as a standard popular English song.

BRAHAM, JOHN (c. 1774-1856), English vocalist, was born in London around 1774 to Jewish parents, his real name being Abraham. His father and mother passed away when he was quite young. After receiving singing lessons from an Italian teacher named Leoni, he made his public debut at Covent Garden theatre on April 21, 1787, performing “The soldier tired of war’s alarms” and “Ma chère arrive.” When his voice began to break, he had to make a living by teaching the 377 pianoforte. However, a few years later, he regained his voice, which turned out to be a tenor of exceptionally pure and rich quality. His second debut was in 1794 at the Bath concerts, where he received extensive training for more than two years from the conductor Rauzzini. In 1796, he reappeared in London at Drury Lane in Storace’s opera Mahmoud. His success was so great that he secured a contract the following year to perform at the Italian opera house in Grétry’s Azor et Zémire. He also sang in oratorios and was booked for the Three Choir festival in Gloucester. Aiming to perfect his craft, he left for Italy in the autumn of 1797. On his way, he gave several concerts in Paris, which were so successful that he decided to stay there for eight months. His career in Italy was marked by continuous triumphs; he performed in all the major opera houses, including Milan, Genoa, Leghorn, and Venice. His vocal range spanned about nineteen notes, and his falsetto technique was flawless. In 1801, he returned to England and performed again at Covent Garden in the opera Chains of the Heart, by Mazzinghi and Reeve. His popularity was so immense that he canceled an engagement he had made while abroad to return to Vienna after a year and stayed in England instead. In 1824, he sang the role of Max in the English version of Weber’s Der Freischütz, and he was the original Sir Huon in that composer’s Oberon in 1826. Braham made two unfortunate large-scale investments, one being the purchase of the Colosseum in Regent’s Park in 1831 for £40,000, and the other the construction of the St James’s theatre for £26,000 in 1836. In 1838, he sang the role of William Tell at Drury Lane, and in 1839 he performed as Don Giovanni. His last public appearance was at a concert in March 1852. He passed away on February 17, 1856. There is possibly no other recorded case of a top-tier singer maintaining the use of his voice for so long; there were more than sixty years between Braham’s first and last public performances, during which he held unmatched supremacy in opera, oratorio, and the concert hall for forty years. Braham composed a number of vocal pieces that enjoyed temporary popularity when performed by him, though they had little lasting quality and are now rightly forgotten. An exception might be made for “The Death of Nelson,” originally written in 1811 as part of the opera The American; this song still holds a place as a standard popular English piece.


BRAHE, PER, Count (1602-1680), Swedish soldier and statesman, was born on the island of Rydboholm, near Stockholm, on the 18th of February 1602. He was the grandson of Per Brahe (1520-1590), one of Gustavus I.’s senators, created count of Visingsborg by Eric XIV., known also as the continuator of Peder Svart’s chronicle of Gustavus I., and author of Oeconomia (1585), a manual for young noblemen. Per Brahe the younger, after completing his education by several years’ travel abroad, became in 1626 chamberlain to Gustavus Adolphus, whose lasting friendship he gained. He fought with distinction in Prussia during the last three years of the Polish War (1626-1629) and also, as colonel of a regiment of horse, in 1630 in Germany. After the death of Gustavus Adolphus in 1632 his military yielded to his political activity. He had been elected president (Landsmarskalk) of the diet of 1629, and in the following year was created a senator (Riksråd). In 1635 he conducted the negotiations for an armistice with Poland. In 1637-1640 and again in 1648-1654 he was governor-general in Finland, to which country he rendered inestimable services by his wise and provident rule. He reformed the whole administration, introduced a postal system, built ten new towns, improved and developed commerce and agriculture, and very greatly promoted education. In 1640 he opened the university of Åbo, of which he was the founder, and first chancellor. After the death of Charles X. in 1660, Brahe, as rikskansler or chancellor of Sweden, became one of the regents of Sweden for the second time (he had held a similar office during the minority of Christina, 1632-1644), and during the difficult year 1660 he had entire control of both foreign and domestic affairs. He died on the 2nd of September 1680, at his castle at Visingsborg, where during his lifetime he had held more than regal pomp.

BRAHE, PER, Count (1602-1680), Swedish soldier and statesman, was born on the island of Rydboholm, near Stockholm, on February 18, 1602. He was the grandson of Per Brahe (1520-1590), a senator under Gustavus I, who was made the count of Visingsborg by Eric XIV. He is also known as the person who continued Peder Svart’s chronicle of Gustavus I and authored Oeconomia (1585), a guide for young noblemen. After completing his education with several years of travel abroad, Per Brahe the younger became chamberlain to Gustavus Adolphus in 1626, earning his lasting friendship. He distinguished himself in Prussia during the last three years of the Polish War (1626-1629) and served as colonel of a cavalry regiment in Germany in 1630. Following Gustavus Adolphus's death in 1632, he shifted from military to political roles. He was elected president (Landsmarskalk) of the diet in 1629 and became a senator (Riksråd) the following year. In 1635, he negotiated an armistice with Poland. He served as governor-general in Finland from 1637 to 1640 and again from 1648 to 1654, where he provided invaluable services through his wise and effective governance. He reformed the entire administration, established a postal system, built ten new towns, enhanced trade and agriculture, and significantly advanced education. In 1640, he opened the university of Åbo, which he founded and was its first chancellor. After Charles X's death in 1660, Brahe became rikskansler or chancellor of Sweden for the second time (having previously held a similar role during Christina's minority from 1632 to 1644), and during the challenging year of 1660, he had complete control of both foreign and domestic affairs. He died on September 2, 1680, at his castle in Visingsborg, where he had lived with more than royal grandeur.

His brother, Nils Brahe (1604-1632), also served with distinction under Gustavus Adolphus. He took part in the siege and capture of Riga in 1621, served with distinction in Poland (1626-1627) and assisted in the defence of Stralsund in 1628. In 1630 he accompanied Gustavus into Germany, and in 1631 was appointed colonel of “the yellow regiment,” the king’s world-renowned life-guards, at the head of which he captured the castle of Würzburg on the 8th of October 1631. He took part in the long duel between Gustavus and Wallenstein round Nuremberg as general of infantry, and commanded the left wing at Lützen (November 6, 1632), where he was the only Swedish general officer present. At the very beginning of the fight he was mortally wounded. The king regarded Brahe as the best general in the Swedish army after Lennart Torstensen.

His brother, Nils Brahe (1604-1632), also served with distinction under Gustavus Adolphus. He participated in the siege and capture of Riga in 1621, served notably in Poland (1626-1627), and helped defend Stralsund in 1628. In 1630, he joined Gustavus in Germany, and in 1631, he was appointed colonel of “the yellow regiment,” the king’s famous life-guards, leading the capture of the castle of Würzburg on October 8, 1631. He took part in the lengthy confrontation between Gustavus and Wallenstein around Nuremberg as a general of infantry and commanded the left wing at Lützen (November 6, 1632), where he was the only Swedish general officer present. At the very start of the battle, he was mortally wounded. The king considered Brahe to be the best general in the Swedish army after Lennart Torstensen.

A direct descendant of Nils, Magnus Brahe (1790-1844), fought in the campaign of 1813-14, under the crown prince Bernadotte, with whom, after his accession to the throne as Charles XIV., he was in high favour. He became marshal of the kingdom, and, especially from 1828 onwards, exercised a preponderant influence in public affairs.

A direct descendant of Nils, Magnus Brahe (1790-1844), fought in the campaign of 1813-14 under Crown Prince Bernadotte, with whom he became favorable after Bernadotte ascended the throne as Charles XIV. He became marshal of the kingdom and, especially from 1828 onward, held significant influence in public affairs.

See Martin Veibull, Sveriges Storhetstid, vol. iv. (Stockholm, 1881); Letters to Axel Oxenstjerna (Swed.) 1832-1851 (Stockholm, 1890); Petrus Nordmann, Per Brahe (Helsingfors, 1904).

See Martin Veibull, Sveriges Storhetstid, vol. iv. (Stockholm, 1881); Letters to Axel Oxenstjerna (Swed.) 1832-1851 (Stockholm, 1890); Petrus Nordmann, Per Brahe (Helsingfors, 1904).

(R. N. B.)

BRAHE, TYCHO (1546-1601), Danish astronomer, was born on the 14th of December 1546 at the family seat of Knudstrup in Scania, then a Danish province. Of noble family, he was early adopted by his uncle, Jörgen Brahe, who sent him, in April 1559, to study philosophy and rhetoric at Copenhagen. The punctual occurrence at the predicted time, August 21st, 1560, of a total solar eclipse led him to regard astronomy as “something divine”; he purchased the Ephemerides of Johann Stadius (3rd ed., 1570), and the works of Ptolemy in Latin, and gained some insight into the theory of the planets. Entered as a law-student at the university of Leipzig in 1562, he nevertheless secretly prosecuted celestial studies, and began continuous observations with a globe, a pair of compasses and a “cross-staff.” He quitted Leipzig on the 17th of May 1565, but his uncle dying a month later, he repaired to Wittenberg, and thence to Rostock, where, in 1566, he lost his nose in a duel, and substituted an artificial one made of a copper alloy. In 1569 he matriculated at Augsburg, and devoted himself to chemistry for two years (1570-1572). On his return to Denmark, in 1571, he was permitted by his maternal uncle, Steno Belle, to instal a laboratory at his castle of Herritzvad, near Knudstrup; and there, on the 11th of November 1572, he caught sight of the famous “new star” in Cassiopeia. He diligently measured its position, and printed an account of his observations in a tract entitled De Novâ Stellâ (Copenhagen, 1573), a facsimile of which was produced in 1901, as a tercentenary tribute to the author’s memory.

BRAHE, TYCHO (1546-1601), a Danish astronomer, was born on December 14, 1546, at the family estate of Knudstrup in Scania, which was then a Danish province. Coming from a noble family, he was adopted early on by his uncle, Jörgen Brahe, who sent him to study philosophy and rhetoric in Copenhagen in April 1559. The total solar eclipse that occurred on August 21, 1560, exactly as predicted, made him see astronomy as “something divine”; he bought the Ephemerides by Johann Stadius (3rd ed., 1570) and the Latin works of Ptolemy, gaining some understanding of planetary theory. He enrolled as a law student at the University of Leipzig in 1562, but secretly continued his studies of the heavens, using a globe, a pair of compasses, and a “cross-staff” for his observations. He left Leipzig on May 17, 1565, but after his uncle died a month later, he went to Wittenberg and then to Rostock, where he lost his nose in a duel in 1566 and had to replace it with an artificial one made of a copper alloy. In 1569, he enrolled at Augsburg and focused on chemistry for two years (1570-1572). When he returned to Denmark in 1571, his maternal uncle, Steno Belle, allowed him to set up a laboratory at his castle of Herritzvad, near Knudstrup; there, on November 11, 1572, he observed the famous “new star” in Cassiopeia. He carefully measured its position and published his findings in a pamphlet titled De Novâ Stellâ (Copenhagen, 1573), a facsimile of which was released in 1901 to honor the author's memory on the tercentenary of his birth.

Tycho’s marriage with a peasant-girl in 1573 somewhat strained his family relations. He delivered lectures in Copenhagen by royal command in 1574; and in 1575 travelled through Germany to Venice. The execution of his design to settle at Basel was, however, anticipated by the munificence of Frederick II., king of Denmark, who bestowed upon him for life the island of Hveen in the Sound, together with a pension of 500 thalers, a canonry in the cathedral of Roskilde, and the income of an estate in Norway. The first stone of the magnificent observatory of Uraniborg was laid on the 8th of August 1576; it received the finest procurable instrumental outfit; and was the scene, during twenty-one years, of Tycho’s labours in systematically collecting materials—the first made available since the Alexandrian epoch—for the correction of astronomical theories. James VI. of Scotland, afterwards James I. of England, visited him at Uraniborg on the 20th of March 1590. But by that time his fortunes were on the wane; for Frederick II. died in 1588, and his successor, Christian IV., was less tolerant of Tycho’s arrogant and insubordinate behaviour. His pension and fief having been withdrawn, he sailed for Rostock in June 1597, and re-commenced observing before the close of the year, in the castle 378 of Wandsbeck near Hamburg. He spent the following winter at Wittenberg, and reached Prague in June 1599, well assured of favour and protection from the emperor Rudolph II. That monarch, accordingly, assigned him the castle of Benatky for his residence, with a pension of 3000 florins; his great instruments were moved thither from Hveen, and Johannes Kepler joined him there in January 1600. But this phase of renewed prosperity was brief. After eleven days’ illness, Tycho Brahe died on the 24th of October 1601, at Benatky, and was buried in the Teynkirche, Prague.

Tycho's marriage to a peasant girl in 1573 put a bit of a strain on his family relationships. He gave lectures in Copenhagen by royal order in 1574 and traveled through Germany to Venice in 1575. However, his plans to settle in Basel were interrupted by the generosity of Frederick II, king of Denmark, who granted him the island of Hveen in the Sound for life, along with a pension of 500 thalers, a canonry in the cathedral of Roskilde, and the income from an estate in Norway. The first stone of the impressive observatory Uraniborg was laid on August 8, 1576; it received the best instruments available and became the site of Tycho's work for twenty-one years, where he systematically gathered data—the first since the Alexandrian era—for correcting astronomical theories. James VI of Scotland, later James I of England, visited him at Uraniborg on March 20, 1590. By then, however, his fortunes were declining; Frederick II had died in 1588, and his successor, Christian IV, was less tolerant of Tycho's arrogant and rebellious behavior. After his pension and land were taken away, he sailed to Rostock in June 1597 and started observing again before the end of the year in the castle of Wandsbeck near Hamburg. He spent the winter in Wittenberg and arrived in Prague in June 1599, confident of favor and protection from Emperor Rudolph II. The emperor assigned him the castle of Benatky as his residence, with a pension of 3,000 florins; his large instruments were moved there from Hveen, and Johannes Kepler joined him in January 1600. However, this renewed period of prosperity was short-lived. After eleven days of illness, Tycho Brahe died on October 24, 1601, at Benatky and was buried in Teynkirche, Prague.

Tycho’s principal work, entitled Astronomiae Instauratae Progymnasmata (2 vols., Prague, 1602-1603) was edited by Kepler. The first volume treated of the motions of the sun and moon, and gave the places of 777 fixed stars (this number was increased to 1005 by Kepler in 1627 in the “Rudolphine Tables”). The second, which had been privately printed at Uraniborg in 1588 with the heading De Mundi Aetherei recentioribus Phaenomenis, was mainly concerned with the comet of 1577, demonstrated by Tycho from its insensible parallax to be no terrestrial exhalation, as commonly supposed, but a body traversing planetary space. It included, besides, an account of the Tychonic plan of the cosmos, in which a via media was sought between the Ptolemaic and Copernican systems. The earth retained its immobility; but the five planets were made to revolve round the sun, which, with its entire cortège, annually circuited the earth, the sphere of the fixed stars performing meanwhile, as of old, its all-inclusive diurnal rotation (see ASTRONOMY: History). Under the heading Astronomiae Instauratae Mechanica, Tycho published at Wandsbeck, in 1598, a description of his instruments, together with an autobiographical account of his career and discoveries, including the memorable one of the moon’s “variation” (see Moon). The book was reprinted at Nuremberg in 1602 (cf. Hasselberg, Vierteljahrsschrift Astr. Ges. xxxix. iii. 180). His Epistolae Astronomicae, printed at Uraniborg in 1596 with a portrait engraved by Geyn of Amsterdam in 1586, were embodied in a complete edition of his works issued at Frankfort in 1648. Tycho vastly improved the art of astronomical observation. He constructed a table of refractions, allowed for instrumental inaccuracies, and eliminated by averaging accidental errors. He, moreover, corrected the received value of nearly every astronomical quantity; but the theoretical purpose towards which his practical reform was directed, was foiled by his premature death.

Tycho's main work, titled Astronomiae Instauratae Progymnasmata (2 vols., Prague, 1602-1603), was edited by Kepler. The first volume discussed the movements of the sun and moon and provided the positions of 777 fixed stars (this number was increased to 1005 by Kepler in 1627 in the “Rudolphine Tables”). The second volume, which was privately printed at Uraniborg in 1588 under the title De Mundi Aetherei recentioribus Phaenomenis, focused mainly on the comet of 1577. Tycho argued that this comet, due to its negligible parallax, was not a terrestrial phenomenon, as commonly thought, but a celestial body moving through space. It also included an outline of the Tychonic model of the universe, which aimed to find a middle ground between the Ptolemaic and Copernican systems. In this model, the earth remained stationary, while the five planets orbited the sun, which, along with its entire entourage, circled the earth annually, with the sphere of fixed stars continuing its daily rotation as before (see ASTRONOMY: History). Under the title Astronomiae Instauratae Mechanica, Tycho published a description of his instruments in Wandsbeck in 1598, along with an autobiographical account of his career and discoveries, including the notable observation of the moon’s “variation” (see Moon). The book was reprinted in Nuremberg in 1602 (cf. Hasselberg, Vierteljahrsschrift Astr. Ges. xxxix. iii. 180). His Epistolae Astronomicae, printed at Uraniborg in 1596 with a portrait engraved by Geyn of Amsterdam in 1586, were included in a complete edition of his works published in Frankfurt in 1648. Tycho significantly improved the art of astronomical observation. He created a table of refractions, accounted for instrumental inaccuracies, and reduced random errors by averaging. Moreover, he corrected the recognized values of nearly every astronomical measurement; however, his practical reforms were cut short by his untimely death.

See J.L.E. Dreyer’s Tycho Brahe (Edinburgh, 1890), which gives full and authentic information regarding his life and work. Also Gassendi’s Vita (Paris, 1654); Lebensbeschreibung, collected from various Danish sources, and translated into German by Philander von der Weistritz (Copenhagen and Leipzig, 1756); Tyge Brahe, by F.R. Friis (Copenhagen, 1871); Prager Tychoniana, collected by Dr F.I. Studnicka (Prague, 1901), a description of the scanty Tychonian relics which survived the Thirty Years’ War and are still preserved at Prague.

See J.L.E. Dreyer’s Tycho Brahe (Edinburgh, 1890), which provides full and accurate information about his life and work. Also check out Gassendi’s Vita (Paris, 1654); Lebensbeschreibung, compiled from various Danish sources and translated into German by Philander von der Weistritz (Copenhagen and Leipzig, 1756); Tyge Brahe, by F.R. Friis (Copenhagen, 1871); and Prager Tychoniana, compiled by Dr F.I. Studnicka (Prague, 1901), which is a description of the few Tychonian relics that survived the Thirty Years’ War and are still kept in Prague.

(A. M. C.)

BRAHMAN, a Sanskrit noun-stem which, differently accented, yields in the two nominatives Brahmă (neut.) and Brahmā (masc.), the names of two deities which occupy prominent places in the orthodox system of Hindu belief. Brahmă (n.) is the designation generally applied to the Supreme Soul (paramātman), or impersonal, all-embracing divine essence, the original source and ultimate goal of all that exists; Brahmā (m.), on the other hand, is only one of the three hypostases of that divinity whose creative activity he represents, as distinguished from its preservative and destructive aspects, ever apparent in life and nature, and represented by the gods Vishṇu and Śiva respectively. The history of the two cognate names reflects in some measure the development of Indian religious speculation generally.

BRAHMAN, is a Sanskrit noun that, with different accents, gives us the two nominatives Brahmă (neut.) and Brahmā (masc.), representing two deities that hold significant positions in the traditional Hindu belief system. Brahmă (n.) generally refers to the Supreme Soul (paramātman), or the impersonal, all-encompassing divine essence, which is the original source and ultimate goal of everything that exists; Brahmā (m.), in contrast, is just one of the three forms of this divinity, associated with its creative function, unlike its preservative and destructive roles, which are represented by the gods Vishṇu and Śiva, respectively. The history of these two closely related names reflects, to some extent, the evolution of Indian religious thought overall.

The neuter term brahmă is used in the Rigveda both in the abstract sense of “devotion, worship,” and in the concrete sense of “devotional rite, prayer, hymn.” The spirit of Vedic worship is pervaded by a devout belief in the efficacy of invocation and sacrificial offering. The earnest and well-expressed prayer or hymn of praise cannot fail to draw the divine power to the worshipper and make it yield to his supplication; whilst offerings, so far from being mere acts of devotion calculated to give pleasure to the god, constitute the very food and drink which render him vigorous and capable of battling with the enemies of his mortal friend. It is this intrinsic power of fervent invocation and worship which found an early expression in the term brahmă; and its independent existence as an active moral principle in shaping the destinies of man became recognized in the Vedic pantheon in the conception of a god Bṛihaspati or Brahmaṇaspati, “lord of prayer or devotion,” the divine priest and the guardian of the pious worshipper. By a natural extension of the original meaning, the term brahmă, in the sense of sacred utterance, was subsequently likewise applied to the whole body of sacred writ, the tri-vidyā or “triple lore” of the Veda; whilst it also came to be commonly used as the abstract designation of the priestly function and the Brāhmanical order generally, in the same way as the term kshatra, “sway, rule,” came to denote the aggregate of functions and individuals of the Kshatriyas or Rājanyas, the nobility or military class.

The neutral term brahmă is used in the Rigveda to mean both “devotion, worship” in an abstract way and “devotional rite, prayer, hymn” in a concrete sense. The essence of Vedic worship is filled with a strong belief in the power of invocation and sacrificial offerings. A sincere and well-articulated prayer or hymn of praise is bound to attract divine power to the worshiper and compel it to respond to their requests; while offerings, instead of just being acts of devotion meant to please the god, act as the very food and drink that strengthen him, enabling him to confront the enemies of his mortal devotee. This inherent power of passionate invocation and worship was early encapsulated in the term brahmă; and its recognized existence as a guiding moral principle influencing human destinies was acknowledged in the Vedic pantheon through the concept of a god Bṛihaspati or Brahmaṇaspati, “lord of prayer or devotion,” the divine priest and protector of the devoted worshiper. By a natural extension of its original meaning, the term brahmă came to refer to the entire collection of sacred texts, the tri-vidyā or “triple lore” of the Veda; it also began to be used commonly as the abstract term for the priestly role and the Brāhmanical order in general, just as the term kshatra, “sway, rule,” evolved to represent the aggregate of roles and individuals of the Kshatriyas or Rājanyas, the nobility or military class.

The universal belief in the efficacy of invocation as an indispensable adjunct to sacrifices and religious rites generally, could not fail to engender and maintain in the minds of the people feelings of profound esteem and reverence towards those who possessed the divine gift of inspired utterance, as well as for those who had acquired an intimate knowledge of the approved forms of ritual worship. A common designation of the priest is brahman (nom. brahma), originally denoting, it would seem, “one who prays, a worshipper,” perhaps also “the composer of a hymn” (brahman, n.); and the same term came subsequently to be used not only for one of the sacerdotal order generally, but also, and more commonly, as the designation of a special class of priests who officiated as superintendents during sacrificial performances, the complicated nature of which required the co-operation of a whole staff of priests, and who accordingly were expected to possess a competent knowledge of the entire course of ritual procedure, including the correct form and mystic import of the sacred texts to be repeated or chanted by the several priests. The Brahman priest (brahmā) being thus the recognized head of the sacerdotal order (brahmă), which itself is the visible embodiment of sacred writ and the devotional spirit pervading it (brahmă), the complete realization of theocratic aspirations required but a single step, which was indeed taken in the theosophic speculations of the later Vedic poets and the authors of the Brāhmanas (q.v.), viz. the recognition of this abstract notion of the Brahma as the highest cosmic principle and its identification with the pantheistic conception of an all-pervading, self-existent spiritual substance, the primary source of the universe; and subsequently coupled therewith the personification of its creative energy in the form of Brahmā, the divine representative of the earthly priest, who was made to take the place of the earlier conception of Prajāpati, “the lord of creatures” (see Brahmanism). By this means the very name of this god expressed the essential oneness of his nature with that of the divine spirit as whose manifestation he was to be considered. In the later Vedic writings, especially the Brāhmanas, however, Prajāpati still maintains throughout his position as the paramount personal deity; and Brahma, in his divine capacity, is rather identified with Bṛihaspati, the priest of the gods. Moreover, the exact relationship between Prajāpati and the Brahmă (n.) is hardly as yet defined with sufficient precision; it is rather one of simple identification: in the beginning the Brahma was the All, and Prajapati is the Brahma. It is only in the institutes of Manu, where we find the system of castes propounded in its complete development, that Brahmā has his definite place assigned to him in the cosmogony. According to this work, the universe, before undiscerned, was made discernible in the beginning by the sole, self-existent lord Brahmă (n.). He, desirous of producing different beings from his own self, created the waters by his own thought, and placed in them a seed which developed into a golden egg; therein was born Brahmā (m.), the parent of all the worlds; and thus “that which is the undiscrete Cause, eternal, which is and is not, from it issued that male who is called in the world Brahmā.” Having dwelt in that egg for a year, that lord spontaneously by his own 379 thought split that egg in two; and from the two halves he fashioned the heaven and the earth, and in the middle, the sky, and the eight regions (the points of the compass), and the perpetual place of the waters. This theory of Brahmā being born from a golden egg is, however, a mere adaptation of the Vedic conception of Hiranya-garbha (“golden embryo”), who is represented as the supreme god in a hymn of the tenth (and last) book of the Rigveda. Another still later myth, which occurs in the epic poems, makes Brahma be born from a lotus which grew out of the navel of the god Vishṇu whilst floating on the primordial waters. In artistic representations, Brahmā usually appears as a bearded man of red colour with four heads crowned with a pointed, tiara-like head-dress, and four hands holding his sceptre, or a sacrificial spoon, a bundle of leaves representing the Veda, a bottle of water of the Ganges, and a string of beads or his bow Parivīta. His vehicle (vāhana) is a goose or swan (hamsa), whence he is also called Haṃsāvhana; and his consort is Sarasvatī, the goddess of learning.

The widely held belief in the power of invocation as a crucial addition to sacrifices and religious ceremonies inevitably created and sustained deep respect and admiration among people for those who had the divine gift of inspired speech, as well as for those who had gained a close understanding of the proper forms of ritual worship. A common title for the priest is brahman (nom. brahma), which originally seemed to mean “one who prays, a worshipper,” and possibly also “the composer of a hymn” (brahman, n.); over time, this term was used not only for the sacerdotal order in general, but also, more commonly, for a special class of priests who supervised sacrificial rituals. These rituals were complex and required the collaboration of various priests who were expected to have proficient knowledge of the entire ritual process, including the correct forms and mystical meanings of the sacred texts that were recited or chanted by different priests. The Brahman priest (brahmā) thus became the recognized leader of the sacerdotal order (brahmă), which itself represented the visible embodiment of sacred scriptures and the spiritual devotion that infused them (brahmă). The complete fulfillment of theocratic aspirations required only one additional step, which was indeed taken in the philosophical speculations of later Vedic poets and the writers of the Brāhmanas (q.v.), namely the acknowledgment of the abstract concept of Brahma as the highest cosmic principle and its identification with the pantheistic view of an all-encompassing, self-existent spiritual essence, the original source of the universe. This was later paired with the personification of its creative force in the form of Brahmā, the divine counterpart of the earthly priest, who replaced the earlier idea of Prajāpati, “the lord of creatures” (see Brahmanism). In this way, the name of this god reflected the fundamental unity of his nature with that of the divine spirit of which he was a manifestation. However, in later Vedic texts, especially the Brāhmanas, Prajāpati still retains his position as the primary personal deity, while Brahma, in his divine role, is more often associated with Bṛihaspati, the priest of the gods. Furthermore, the exact relationship between Prajāpati and Brahmă (n.) is not yet clearly defined; it is rather one of simple identification: in the beginning, Brahma was the All, and Prajapati is Brahma. It is only in the texts of Manu, where the caste system is fully articulated, that Brahmā is given a specific role in cosmogony. According to this text, the universe, which was initially undetectable, became visible at the start through the sole, self-existent lord Brahmă (n.). He, wishing to create diverse beings from his own essence, generated the waters through his thought and placed a seed in them that developed into a golden egg; within this egg, Brahmā (m.) was born, the parent of all worlds; and thus “that which is the non-discrete Cause, eternal, which is and is not, from it came forth that male who is known in the world as Brahmā.” After dwelling in that egg for a year, the lord spontaneously split it in two with his own thought; from the two halves, he shaped the heavens and the earth, and in the center, the sky, and the eight directions (the cardinal points), and the eternal abode of the waters. This concept of Brahmā being born from a golden egg is basically an adaptation of the Vedic idea of Hiranya-garbha (“golden embryo”), portrayed as the supreme god in a hymn from the tenth (and last) book of the Rigveda. A later myth found in epic poetry describes Brahma as being born from a lotus that grew from the navel of the god Vishṇu while he floated on the primordial waters. In artistic depictions, Brahmā typically appears as a bearded man with a reddish hue and four heads, wearing a pointed, tiara-like crown, and holding four objects: a scepter, a sacrificial spoon, a bundle of leaves symbolizing the Veda, a bottle of Ganges water, and a string of beads or his bow Parivīta. His vehicle (vāhana) is a goose or swan (hamsa), which is why he’s also called Haṃsāvhana; his consort is Sarasvatī, the goddess of knowledge.

One could hardly expect that a colourless deity of this description, so completely the product of priestly speculation, could ever have found a place in the hearts of the people generally, And indeed, whilst in theoretic theology Brahma has retained his traditional place and function down to our own days, his practical cult has at all times remained extremely limited, the only temple dedicated to the worship of this god being found at Pushkar (Pokhar) near Ajmir in Rājputāna. On the other hand, his divine substratum, the impersonal Brahma, the world-spirit, the one and only reality, remains to this day the ultimate element of the religious belief of intelligent India of whatever sect. Being devoid of all attributes, it can be the object only of meditation, not of practical devotional rites; and philosophy can only attempt to characterize it in general and vague terms, as in the favourite formula which makes it to be sachchidānanda, i.e. being (sat), thinking (chit), and bliss (ānanda).

One could hardly expect that a colorless deity like this, entirely a product of priestly speculation, could ever resonate with the general public. And indeed, while in theoretical theology Brahma has kept his traditional role all the way to today, his actual worship has always been quite limited, with the only temple dedicated to him located at Pushkar (Pokhar) near Ajmir in Rājputāna. On the other hand, his divine essence, the impersonal Brahma, the world-spirit, the one true reality, remains to this day the core element of the religious belief of thoughtful people in India, regardless of their sect. As it lacks any attributes, it can only be the focus of meditation, not practical devotional rituals; and philosophy can only try to describe it in broad and vague terms, as seen in the common phrase that characterizes it as sachchidānanda, i.e. being (sat), consciousness (chit), and bliss (ānanda).

(J. E.)

BRĀHMAṆA, the Sanskrit term applied to a body of prose writings appended to the collections (samhitā) of Vedic texts, the meaning and ritual application of which they are intended to elucidate, and like them regarded as divinely revealed. From a linguistic point of view, these treatises with their appendages, the more mystic and recondite Āraṇyakas and the speculative Upanishads, have to be considered as forming the connecting link between the Vedic and the classical Sanskrit. The exact derivation and meaning of the name is somewhat uncertain. Whilst the masculine term brāhmaṇa (nom. brāhmaṇas), the ordinary Sanskrit designation of a man of the Brahmanical caste, is clearly a derivative of brahman (nom. brahmā), a common Vedic term for a priest (see Brahman), thus meaning the son or descendant of a Brahman, the neuter word brāhmaṇa (nom. brāhmaṇam) on the other hand, with which we are here concerned, admits of two derivations: either it is derived from the same word brahman, and would then seem to mean a dictum or observation ascribed to, or intended for the use of, a Brahman, or superintendent priest; or it has rather to be referred to the neuter noun brahmān (nom. brahmă), in the sense of “sacred utterance or rite,” in which case it might mean a comment on a sacred text, or explanation of a devotional rite, calculated to bring out its spiritual or mystic significance and its bearing on the Brahma, the world-spirit embodied in the sacred writ and ritual. This latter definition seems on the whole the more probable one, and it certainly would fit exactly the character of the writings to which the term relates. It will thus be seen that the term brāhmaṇam applies not only to complete treatises of an exegetic nature, but also to single comments on particular texts or rites of which such a work would be made up.

BRĀHMAṆA, the Sanskrit term used for a collection of prose writings attached to the groups (samhitā) of Vedic texts, which are meant to clarify their meaning and ritual use, and like them, are considered divinely revealed. From a linguistic perspective, these treatises, along with the more mystical and obscure Āraṇyakas and the philosophical Upanishads, serve as a bridge between the Vedic and classical Sanskrit. The exact origin and meaning of the name is a bit unclear. While the masculine term brāhmaṇa (nom. brāhmaṇas), the standard Sanskrit term for a man of the Brahmanical caste, is clearly derived from brahman (nom. brahmā), a common Vedic term for a priest (see Brahman), meaning the son or descendant of a Brahman, the neuter word brāhmaṇa (nom. brāhmaṇam) that we are discussing has two possible derivations: it could come from the same word brahman, suggesting it means a statement or observation attributed to, or meant for the use of, a Brahman or chief priest; or it could refer to the neuter noun brahmān (nom. brahmă), meaning “sacred utterance or rite,” in which case it might refer to a commentary on a sacred text or an explanation of a devotional rite that emphasizes its spiritual or mystical significance and its relationship with the Brahma, the world-spirit represented in the sacred texts and rituals. This latter definition seems more likely overall, and it definitely aligns with the nature of the writings that the term describes. It can thus be understood that the term brāhmaṇam refers not only to full treatises of an explanatory nature but also to individual comments on specific texts or rites that such a work would consist of.

The gradual elaboration of the sacrificial ceremonial, as the all-sufficient expression of religious devotion, and a constantly growing tendency towards theosophic and mystic speculation on the significance of every detail of the ritual, could not fail to create a demand for explanatory treatises of this kind, which, to enhance their practical utility, would naturally deal with the special texts and rites assigned in the ceremonial to the several classes of officiating priests. At a subsequent period the demand for instruction in the sacrificial science called into existence a still more practical set of manuals, the so-called Kalpa-sūtras, or ceremonial rules, detailing, in succinct aphorisms, the approved course of sacrificial procedure, without reference to the supposed origin or import of the several rites. These manuals are also called Śrauta-sūtras, treating as they do, like the Brāhmaṇas, of the Śrauta rites—i.e. the rites based on the śruti or revelation—requiring at least three sacrificial fires and a number of priests, as distinguished from the gṛihya (domestic) or smārta (traditional) rites, supposed to be based on the smriti or tradition, which are performed on the house-fire and dealt with in the Gṛihya-sūtras.

The gradual development of sacrificial ceremonies, seen as a complete expression of religious devotion, along with an ongoing interest in theosophical and mystical interpretations of every detail of the ritual, inevitably created a need for explanatory texts of this sort. These texts aimed to increase their practical usefulness by addressing the specific texts and rites assigned to the different classes of officiating priests in the ceremonies. Later on, the demand for education in sacrificial practices led to the creation of a more practical collection of manuals known as the Kalpa-sūtras, or ceremonial rules, which outlined, in concise statements, the accepted procedures for sacrifices without discussing the supposed origin or meaning of the various rites. These manuals are also referred to as Śrauta-sūtras, as they focus on the Śrauta rites—those based on the śruti or revelation—that require at least three sacrificial fires and a number of priests. This is in contrast to the gṛihya (domestic) or smārta (traditional) rites, which are thought to be based on smriti or tradition, performed on the household fire and discussed in the Gṛihya-sūtras.

The ritual recognizes four principal priests (ṛitvij), each of whom is assisted by three subordinates: viz. the Brahman or superintending priest; the Hotṛi or reciter of hymns and verses; the Udgātri or chanter; and the Adhvaryu or offerer, who looks after the details of the ceremonial, including the preparation of the offering-ground, the construction of fire-places and altars, the making of oblations and muttering of the prescribed formulae. Whilst the two last priests have assigned to them special liturgical collections of the texts to be used by them, the Sāmaveda-saṃhitā and Yajurveda-saṃhitā respectively, the Hotṛi has to deal entirely with hymns and verses taken from the Ṛigveda-saṃhitā, of which they would, however, form only a comparatively small portion. As regards the Brahman, he would doubtless be chosen from one of those other three classes, but would be expected to have made himself thoroughly conversant with the texts and ritual details appertaining to all the officiating priests. It is, then, to one or other of those three collections of sacred texts and the respective class of priests, that the existing Brāhmaṇas attach themselves. At a later period, when the Atharvan gained admission to the Vedic canon, a special connexion with the Brahman priest was sometimes claimed, though with scant success, for this fourth collection of hymns and spells, and the comparatively late and unimportant Gopatha-brāhmaṇa attached to it.

The ritual recognizes four main priests (ṛitvij), each assisted by three subordinates: the Brahman or supervising priest; the Hotṛi or reciter of hymns and verses; the Udgātri or chanter; and the Adhvaryu or offerer, who takes care of the details of the ceremony, including preparing the offering-ground, building fire-places and altars, making offerings, and chanting the prescribed formulas. While the last two priests have specific liturgical texts assigned to them—the Sāmaveda-saṃhitā and Yajurveda-saṃhitā—the Hotṛi uses hymns and verses from the Ṛigveda-saṃhitā, which only forms a relatively small portion of their work. As for the Brahman, they would likely be chosen from one of the other three categories but are expected to be fully familiar with the texts and rituals related to all the officiating priests. Thus, it is from one of these three collections of sacred texts and the respective category of priests that the existing Brāhmaṇas derive their significance. Later, when the Atharvan was included in the Vedic canon, a special connection to the Brahman priest was sometimes claimed for this fourth collection of hymns and spells, though it was not very successful, along with the relatively recent and less significant Gopatha-brāhmaṇa.

The Udgātṛi’s duties being mainly confined to the chanting of hymns made up of detached groups of verses of the Ṛigveda, as collected in the Sāmaveda-saṃhitā, the more important Brāhmaṇas of this sacerdotal class deal chiefly with the various modes of chanting, and the modifications which the verses have to undergo in their musical setting. Moreover, the performance of chants being almost entirely confined to the Soma-sacrifice, it is only a portion, though no doubt the most important portion, of the sacrificial ceremonial that enters into the subject matter of the Sāmaveda Brāhmaṃas.

The Udgātṛi's responsibilities mainly involve chanting hymns made up of separate groups of verses from the Ṛigveda, as collected in the Sāmaveda-saṃhitā. The key Brāhmaṇas of this priestly class primarily focus on the various ways of chanting and the changes the verses must undergo in their musical presentation. Additionally, since the performance of chants is largely limited to the Soma-sacrifice, it represents only a part—though undoubtedly the most significant part—of the sacrificial rituals covered in the Sāmaveda Brāhmaṃas.

As regards the Brāhmaṇas of the Ṛigveda, two of such works have been handed down, the Aitareya and the Kaushītaki (or Śānkhāyana)-Brāhmaṇas, which have a large amount of their material in common. But while the former work (transl. into English by M. Haug) is mainly taken up with the Soma-sacrifice, the latter has in addition thereto chapters on the other forms of sacrifice. Being intended for the Hotṛi’s use, both these works treat exclusively of the hymns and verses recited by that priest and his assistants, either in the form of connected litanies or in detached verses invoking the deities to whom oblations are made, or uttered in response to the solemn hymns chanted by the Udgātṛis.

When it comes to the Brāhmaṇas of the Ṛigveda, two works have been passed down: the Aitareya and the Kaushītaki (or Śānkhāyana)-Brāhmaṇas, which share a significant amount of content. However, while the former (translated into English by M. Haug) primarily focuses on the Soma sacrifice, the latter includes chapters on other types of sacrifice as well. Both works are intended for the Hotṛi’s use and exclusively cover the hymns and verses recited by that priest and his assistants, either as connected litanies or as individual verses calling on the deities receiving the offerings, or spoken in response to the solemn hymns sung by the Udgātṛis.

It is, however, to the Brāhmaṇas and Sūtras of the Yajurveda, dealing with the ritual of the real offering-priest, the Adhvaryu, that we have to turn for a connected view of the sacrificial procedure in all its material details. Now, in considering the body of writings connected with this Veda, we are at once confronted by the fact that there are two different schools, an older and a younger one, in which the traditional body of ritualistic matter has been treated in a very different way. For while the younger school, the Vājasaneyins, have made a clear severance between the sacred texts or mantras and the exegetic discussions thereon—as collected in the Vājasaneyi-saṃhitā and the Śatapatha-Brāhmaṇa (trans. by J. Eggeling, in Sacred Books of the East) respectively—arranged systematically in accordance with the ritual divisions, the older school on the 380 other hand present their materials in a hopelessly jumbled form; for not only is each type of sacrifice not dealt with continuously and in orderly fashion, but short textual sections of mantras are constantly followed immediately by their dogmatic exegesis; the term brāhmaṇa thus applying in their case only to these detached comments and not to the connected series of them. Thus the most prominent subdivision of the older school, the Taittirīyas, in their Saṃhitā, have treated the main portion of the ceremonial in this promiscuous fashion, and to add to the confusion they have, by way of supplement, put forth a so-called Taittirīya-brāhmaṇa, which, so far from being a real Brāhmaṇa, merely deals with some additional rites in the same confused mixture of sacrificial formulae and dogmatic explanations. It is not without reason, therefore, that those two schools, the older and the younger, are commonly called the Black (kṛishṇa) and the White (sukla) Yajus respectively.

It is, however, to the Brāhmaṇas and Sūtras of the Yajurveda that we need to look for a clear understanding of the sacrificial process and all its material details, especially as it pertains to the real offering-priest, the Adhvaryu. When examining the writings associated with this Veda, we immediately encounter the fact that there are two different schools: an older one and a younger one, which have handled the traditional ritualistic texts in very distinct ways. The younger school, the Vājasaneyins, has clearly separated the sacred texts or mantras from the explanatory discussions on them, as organized in the Vājasaneyi-saṃhitā and the Śatapatha-Brāhmaṇa (translated by J. Eggeling in Sacred Books of the East), respectively, structured according to the ritual divisions. In contrast, the older school presents their material in a completely disordered way; they do not treat each type of sacrifice in a continuous and organized manner. Instead, short sections of mantras are frequently followed immediately by their dogmatic interpretations, meaning that the term brāhmaṇa applies only to these scattered comments rather than to a cohesive series. Consequently, the most notable subgroup of the older school, the Taittirīyas, in their Saṃhitā, approach the main part of the ceremony in this chaotic manner, and to complicate matters further, they have introduced a so-called Taittirīya-brāhmaṇa, which, rather than being an authentic Brāhmaṇa, merely addresses some additional rites within the same confusing mix of sacrificial formulas and dogmatic explanations. It is not without reason that these two schools, the older and the younger, are commonly referred to as the Black (kṛishṇa) and the White (sukla) Yajus, respectively.

Although the ritualistic discussions of the Brāhmaṇas are for the most part of a dry and uninteresting nature to an even greater degree than is often the case with exegetic theological treatises, these works are nevertheless of considerable importance both as regards the history of Indian institutions and as “the oldest body of Indo-European prose, of a generally free, vigorous, simple form, affording valuable glimpses backwards at the primitive condition of unfettered Indo-European talk” (Whitney). Of especial interest in this respect are the numerous myths and legends scattered through these works. From the archaic style in which these mythological tales are usually composed, as well as from the fact that not a few of them are found in Brāhmaṇas of different schools and Vedas, though often with considerable variations, it seems pretty evident that the groundwork of them must go back to times preceding the composition or final redaction of the existing Brāhmaṇas. In the case of some of these legends—as those of Śunaḥ-Śepha, and the fetching of Soma from heaven—we can even see how they have grown out of germs contained in some of the Vedic hymns. If the literary style in which the exegetic discussion of the texts and rites is carried on in the Brāhmaṇas is, as a rule, of a very bald and uninviting nature, it must be borne in mind that these treatises are of a strictly professional and esoteric character, and in no way lay claim to being considered as literary compositions in any sense of the word. And yet, notwithstanding the general emptiness of their ritualistic discussions and mystic speculations, “there are passages in the Brāhmaṇas full of genuine thought and feeling, and most valuable as pictures of life, and as records of early struggles, which have left no trace in the literature of other nations” (M. Müller).

Although the ritual discussions in the Brāhmaṇas are mostly dry and uninteresting, even more so than many theological texts, these works are still quite important for understanding the history of Indian institutions and represent “the oldest body of Indo-European prose, of a generally free, vigorous, simple form, offering valuable insights into the primitive state of unrestricted Indo-European dialogue” (Whitney). Particularly noteworthy are the many myths and legends woven throughout these texts. Given the ancient style of these mythological stories and the fact that many appear in Brāhmaṇas from different schools and Vedas—often with significant variations—it is clear that their origins date back to times before the existing Brāhmaṇas were written or finalized. For some of these legends, like those of Śunaḥ-Śepha and the retrieval of Soma from heaven, we can see how they developed from elements found in certain Vedic hymns. While the literary style of the exegetic discussion of texts and rituals in the Brāhmaṇas tends to be very plain and uninviting, it's important to remember that these writings are strictly professional and esoteric, not intended to be regarded as literary works in any conventional sense. Yet, despite the overall lack of substance in their ritualistic discussions and mystical reflections, “there are passages in the Brāhmaṇas full of genuine thought and feeling, and most valuable as portraits of life and records of early struggles that have left no trace in the literature of other nations” (M. Müller).

The chief interest, however, attaching to the Brāhmaṇas is doubtless their detailed description of the sacrificial system as practised in the later Vedic ages; and the information afforded by them in this respect should be all the more welcome to us, as the history of religious institutions knows of no other sacrificial ceremonial with the details of which we are acquainted to anything like the same extent. An even more complete and minutely detailed view of the sacrificial system is no doubt obtained from the ceremonial manuals, the Kalpa-sūtras; but it is just by the speculative discussions of the Brāhmaṇas—the mystic significance and symbolical colouring with which they invest single rites—that we gain a real insight into the nature and gradual development of this truly stupendous system of ritual worship.

The main focus of the Brāhmaṇas is definitely their detailed description of the sacrificial system as practiced in the later Vedic period. The information they provide in this regard is particularly valuable, as the history of religious institutions does not offer us another sacrificial ritual with such extensive details. While even more complete and detailed insights into the sacrificial system can be found in the ceremonial manuals, the Kalpa-sūtras, it is the Brāhmaṇas' speculative discussions—the mystical meanings and symbolic interpretations they give to individual rites—that truly help us understand the nature and gradual evolution of this impressive system of ritual worship.

The sacrificial ritual recognizes two kinds of śrauta sacrifices, viz. haviryajnas (meat-offerings), consisting of oblations (ishti) of milk, butter, cereals or flesh, and somayāgas or oblations of the juice of the soma plant. The setting up, by a householder, of a set of three sacrificial fires of his own constitutes the first ceremony of the former class, the Agny-ādhāna (or (?) Agny-ādheya). The first of the three fires laid down is the gārhapatya, or householder’s fire, so called because, though not taken from his ordinary house-fire, but as a rule specially produced by friction, it serves for cooking the sacrificial food, and thus, as it were, represents the domestic fire. From it the other two fires, the ānavanīya, or offering fire, and the dakshiṇāgni, or southern fire, used for certain special purposes, are taken. The principal other ceremonies of this class are the new and full moon offerings, the oblations made at the commencement of the three seasons, the offering of first-fruits, the animal sacrifice, and the Agnihotra, or daily morning and evening oblation of milk, which, however, is also included amongst the gṛihya, or domestic rites, as having to be performed daily on the domestic fire by the householder who keeps no regular set of sacrificial fires.

The sacrificial ritual recognizes two types of śrauta sacrifices: haviryajnas (meat offerings), which consist of offerings (ishti) of milk, butter, grains, or meat, and somayāgas, which are offerings of the juice from the soma plant. When a householder sets up a set of three sacrificial fires for himself, it represents the first ceremony of the former type, the Agny-ādhāna (or possibly Agny-ādheya). The first of the three fires created is the gārhapatya, or householder’s fire, named because it is not taken from his regular household fire, but is typically created by friction; it serves to cook the sacrificial food and thus represents the domestic fire. From this fire, the other two fires are taken: the ānavanīya, or offering fire, and the dakshiṇāgni, or southern fire, which are used for specific purposes. Other major ceremonies in this category include the new and full moon offerings, the offerings made at the start of the three seasons, the offering of first-fruits, the animal sacrifice, and the Agnihotra, or the daily morning and evening offering of milk. However, the Agnihotra is also included among the gṛihya, or domestic rites, since it has to be performed daily on the household fire by a householder who does not maintain a regular set of sacrificial fires.

Of a far more complicated nature than these offerings are the Soma-sacrifices, which, besides the simpler ceremonies of this class, such as the Agnishtoma or “Praise of Agni,” also include great state functions, such as the Räjasūya or consecration of a king, and the Aśvamedha or horse-sacrifice, which, in addition to the sacrificial rites, have a considerable amount of extraneous, often highly interesting, ceremonial connected with them, which makes them seem to partake largely of the nature of public festivals. Whilst the oblations of Soma-juice, made thrice on each offering-day, amidst chants and recitations, constitute the central rites of those services, their ritual also requires numerous single oblations of the ishti kind, including at least three animal offerings, and in some cases the immolation of many hecatombs of victims. Moreover, a necessary preliminary to every Soma-sacrifice is the construction, in five layers, of a special fire-altar of large dimensions, consisting of thousands of bricks, formed and baked on the spot, to each, or each group, of which a special symbolic meaning is attached. The building of this altar is spread over a whole year, during which period the sacrificer has to carry about the sacrificial fire in an earthen pan for at least some time each day, until it is finally deposited on the completed altar to serve as the offering-fire for the Soma oblations. The altar itself is constructed in the form of a bird, because Soma was supposed to have been brought down from heaven by the metre Gāyatrī which had assumed the form of an eagle. Whilst the Soma-sacrifice has been thus developed by the Brāhmaṇas in an extraordinary degree, its essential identity with the Avestan Haoma-cult shows that its origin goes back at all events to the Indo-Iranian period.

The Soma sacrifices are much more complicated than these offerings. They involve simpler ceremonies like the Agnishtoma, or “Praise of Agni,” but also include large state ceremonies such as the Räjasūya, the consecration of a king, and the Aśvamedha, or horse sacrifice. These significant events come with a lot of additional, often fascinating ceremonies that make them feel more like public festivals. While the central rituals of these services include offering Soma juice three times on each offering day, the ritual also needs multiple individual offerings called ishti, which entail at least three animal sacrifices and sometimes include the sacrifice of many countless animals. Additionally, an important step before every Soma sacrifice is building a large fire altar in five layers, made of thousands of bricks formed and baked on-site, each with special symbolic meanings. Constructing this altar takes an entire year, during which the person performing the sacrifice must carry the sacrificial fire in an earthen pan for at least part of each day until it ends up on the finished altar to serve as the offering fire for the Soma sacrifices. The altar is crafted in the shape of a bird because it’s believed that Soma was brought down from heaven by the meter Gāyatrī, which took the form of an eagle. While the Brāhmaṇas highly developed the Soma sacrifice, its strong similarity to the Avestan Haoma cult indicates that its origins trace back to the Indo-Iranian period.

Among the symbolic conceits in which the authors of the Brāhmaṇas so freely indulge, there is one overshadowing all others—if indeed they do not all more or less enter into it—which may be considered as the sum and substance of these speculations, and the esoteric doctrine of the sacrifice, involved by the Brāhmanical ritualists. This is what may conveniently be called the Prajāpati theory, by which the “Lord of Creatures,” the efficient cause of the universe, is identified with both the sacrifice (yajna) and the sacrificer (yajamāna). The origin of this theory goes back to the later Vedic hymns. In the so-called Purusha-sūkta (Ṛigv. x. 90) in which the supreme spirit is conceived of as the person or man (purusha), born in the beginning, and consisting of “whatever hath been and whatever shall be,” the creation of the visible and invisible universe is represented as originating from an “all-offered” (holocaust) sacrifice in which the Purusha himself forms the offering-material (havis), or, as we might say, the victim. In this primeval, or rather timeless because ever-proceeding, sacrifice, time itself, in the shape of its unit the year, is made to take its part, inasmuch as the three seasons—spring, summer and autumn—of which it consists, constitute the ghee (clarified butter), the offering-fuel and the oblation respectively. These speculations may be said to have formed the foundation on which the theory of the sacrifice, as propounded in the Brāhmaṇas, has been reared. Prajāpati—who (probably for practical considerations, as better representing the sacrificer, the earthly ruler, or “lord of the creatures”) here takes the place of the Purusha, the world-man or all-embracing personality—is offered up anew in every sacrifice; and inasmuch as the very dismemberment of the lord of creatures, which took place at that archtypal sacrifice, was in itself the creation of the universe, so every sacrifice is also a repetition of that first creative act. Thus the periodical sacrifice is nothing else than a microcosmic representation of the ever-proceeding destruction and renewal of all cosmic life and matter. The ritualistic theologians, however, go an important step 381 further by identifying Prajāpati with the performer, or patron, of the sacrifice, the sacrificer; every sacrifice thus becoming invested—in addition to its cosmic significance—with the mystic power of regenerating the sacrificer by cleansing him of all guilt and securing for him a seat in the eternal abodes.

Among the symbolic ideas that the authors of the Brāhmaṇas often explore, one stands out above all others—if not all of them are somewhat connected to it—which can be seen as the core of these speculations and the hidden meaning of the sacrifice taught by the Brāhmanical ritualists. This concept can be conveniently referred to as the Prajāpati theory, where the “Lord of Creatures,” the efficient cause of the universe, is linked with both the sacrifice (yajna) and the sacrificer (yajamāna). This theory dates back to the later Vedic hymns. In the so-called Purusha-sūkta (Ṛigv. x. 90), the supreme spirit is envisioned as the person or man (purusha), born at the beginning and encompassing “everything that has existed and everything that will exist.” The creation of both the visible and invisible universe is depicted as coming from an “all-offered” (holocaust) sacrifice in which the Purusha himself serves as the offering material (havis), or, as we might put it, the victim. In this ancient, or rather timeless, sacrifice, which is continually ongoing, even time—the unit of which is the year—takes part, since the three seasons—spring, summer, and autumn—comprise the ghee (clarified butter), the offering-fuel, and the oblation, respectively. These ideas provide the basis for the theory of sacrifice as outlined in the Brāhmaṇas. Prajāpati—likely chosen for practical reasons, as he better represents the sacrificer, the earthly ruler, or “lord of creatures”—takes the place of the Purusha, the world-man or all-encompassing personality, and is offered anew in every sacrifice. Since the actual dismemberment of the lord of creatures during that archetypal sacrifice created the universe, each sacrifice is also a reenactment of that initial creative act. Thus, the periodic sacrifice is simply a microcosmic representation of the ongoing destruction and renewal of all cosmic life and matter. However, the ritualistic theologians take it a significant step further by identifying Prajāpati with the performer or patron of the sacrifice, the sacrificer. Every sacrifice thus gains not only its cosmic importance but also the mystical power to regenerate the sacrificer by cleansing him of all guilt and ensuring him a place in the eternal realms.

Whilst forming the central feature of the ritualistic symbolism, this triad—Prajāpati, sacrifice (oblation, victim), sacrificer—is extended in various ways. An important collateral identification is that of Prajāpati (and the sacrificer) with Agni, the god of fire, embodied not only in the offering-fire, but also in the sacred Soma-altar, the technical name of which is agni. For this reason the altar, as representative of the universe, is built in five layers, representing earth, air and heaven, and the intermediate regions; and in the centre of the altar-site, below the first layer, on a circular gold plate (the sun), a small golden man (purusha) is laid down with his face looking upwards. This is Prajāpati, and the sacrificer, who when regenerated will pass upwards through the three worlds to the realms of light, naturally perforated bricks being for this purpose placed in the middle of the three principal altar-layers. One of the fourteen sections of the Śatapatha-brāhmana, the tenth, called Agni-rahasya or “the mystery of Agni (the god and altar),” is entirely devoted to this feature of the sacrificial symbolism. Similarly the sacrificer, as the human representatiye of the Lord of Creatures, is identified with Soma (as the supreme oblation), with Time, and finally with Death: by the sacrificer thus becoming Death himself, the fell god ceases to have power over him and he is assured of everlasting life. And now we get the Supreme Lord in his last aspect; nay, his one true and real aspect, in which the sacrificer, on shuffling off this mortal coil, will himself come to share—that of pure intellectuality, pure spirituality—he is Mind: such is the ultimate source of being, the one Self, the Purusha, the Brahman. As the sum total of the wisdom propounded in the mystery of Agni, the searcher after truth is exhorted to meditate on that Self, made up of intelligence, endowed with a body of spirit, a form of light, and of an ethereal nature; holding sway over all the regions and pervading this All, being itself speechless and devoid of mental states; and by so doing he shall gain the assurance that “even as a grain of rice, or the smallest granule of millet, so is the golden Purusha in my heart; even as a smokeless light, it is greater than the sky, greater than the ether, greater than the earth, greater than all existing things;—that Self of the Spirit is my Self; on passing away from hence, I shall obtain that Self. And, verily, whosoever has this trust, for him there is no uncertainty.”

While being the central element of the ritual symbolism, this triad—Prajāpati, sacrifice (offering, victim), and sacrificer—can be expanded in various ways. A significant connection is that of Prajāpati (and the sacrificer) with Agni, the god of fire, represented not only in the offering-fire but also in the sacred Soma-altar, which is technically called agni. Because of this, the altar, symbolizing the universe, is constructed in five layers, representing earth, air, heaven, and the intermediate spaces; in the center of the altar site, beneath the first layer, on a circular gold plate (the sun), a small golden man (purusha) is placed facing upwards. This figure represents Prajāpati and the sacrificer, who, when reborn, will ascend through the three worlds to the realms of light. Special perforated bricks are placed in the middle of the three main altar layers for this purpose. One of the fourteen sections of the Śatapatha-brāhmana, the tenth section called Agni-rahasya or “the mystery of Agni (the god and altar),” is entirely focused on this aspect of sacrificial symbolism. Similarly, the sacrificer, as the human representative of the Lord of Creatures, is associated with Soma (as the ultimate offering), Time, and ultimately with Death: by becoming Death itself, the destructive god loses power over him, ensuring his eternal life. Now we arrive at the Supreme Lord in his final aspect; indeed, his true and real aspect, in which the sacrificer, upon shedding this mortal existence, will share—this aspect is pure intellect, pure spirituality—he is Mind: this is the ultimate source of existence, the one Self, the Purusha, the Brahman. As the culmination of the wisdom expressed in the mystery of Agni, the seeker of truth is encouraged to meditate on that Self, which is made of intelligence, has a spirit body, takes the form of light, and possesses an ethereal quality; ruling over all realms and permeating everything, being itself silent and free of mental states; and by doing so, he will find assurance that “just as a grain of rice, or the smallest millet seed, so is the golden Purusha in my heart; just like a smokeless light, it is greater than the sky, greater than the ether, greater than the earth, greater than all that exists;—that Self of the Spirit is my Self; when I leave this place, I will attain that Self. Indeed, whoever holds this belief has no uncertainty.”

(J. E.)

BRAHMANISM, a term commonly used to denote a system of religious institutions originated and elaborated by the Brāhmans, the sacerdotal and, from an early period, the dominant caste of the Hindu community (see Brahman). In like manner, as the language of the Āryan Hindūs has undergone continual processes of modification and dialectic division, so their religious belief has passed through various stages of development broadly distinguished from one another by certain prominent features. The earliest phases of religious thought in India of which a clear idea can now be formed are exhibited in a body of writings, looked upon by later generations in the light of sacred writ, under the collective name of Veda (“knowledge”) or Śruti (“revelation”). The Hindū scriptures consist of four separate collections, or Samhitās, of sacred texts, or mantras, including hymns, incantations and sacrificial forms of prayer, viz. the Ṛich (nom. sing. ṛik) or Ṛigveda, the Sāman or Sāmaveda, the Yajus or Yajurveda, and the Atharvan or Atharvaveda. Each of these four text-books has attached to it a body of prose writings, called Brāhmaṇas (see Brāhmaṇa), intended to explain the ceremonial application of the texts and the origin and import of the sacrificial rites for which these were supposed to have been composed. Usually attached to these works, and in some cases to the Saṃhitās, are two kinds of appendages, the Āraṇyakas and Upanishads, the former of which deal generally with the more recondite rites, while the latter are taken up chiefly with speculations on the problems of the universe and the religious aims of man—subjects often touched upon in the earlier writings, but here dealt with in a more mature and systematic way. Two of the Saṃhitās, the Sāman and the Yajus, owing their existence to purely ritual purposes, and being, besides, the one almost entirely, the other partly, composed of verses taken from the Ṛigveda, are only of secondary importance for our present inquiry. The hymns of the Ṛigveda constitute the earliest lyrical effusions of the Āryan settlers in India which have been handed down to posterity. They are certainly not all equally old; on the contrary they evidently represent the literary activity of many generations of bards, though their relative age cannot as yet be determined with anything like certainty. The tenth (and last) book of the collection, however, at any rate has all the characteristics of a later appendage, and in language and spirit many of its hymns approach very nearly to the level of the contents of the Atharvan. Of the latter collection about one-sixth is found also in the Ṛigveda, and especially in the tenth book; the larger portion peculiar to it, though including no doubt some older pieces, appears to owe its origin to an age not long anterior to the composition of the Brāhmaṇas.

BRAHMANISM, a term often used to refer to a system of religious institutions that originated and developed by the Brāhmans, the priestly and, from an early time, the dominant caste of the Hindu community (see Brahman). Similarly, as the language of the Āryan Hindūs has undergone continuous changes and dialectical shifts, their religious beliefs have evolved through various stages, each marked by distinct features. The earliest phases of religious thought in India, which we can now clearly understand, are reflected in a body of writings regarded by later generations as sacred texts, collectively known as Veda (“knowledge”) or Śruti (“revelation”). The Hindu scriptures consist of four distinct collections, or Samhitās, of sacred texts, or mantras, which include hymns, incantations, and sacrificial prayers, namely the Ṛich (nom. sing. ṛik) or Ṛigveda, the Sāman or Sāmaveda, the Yajus or Yajurveda, and the Atharvan or Atharvaveda. Each of these four texts is accompanied by a collection of prose writings called Brāhmaṇas (see Brāhmaṇa), which explain the ceremonial use of the texts and the origins and meanings of the sacrificial rites for which they were composed. Typically associated with these works, and in some cases with the Saṃhitās, are two types of appendices: the Āraṇyakas and Upanishads. The former generally addresses the more obscure rites, while the latter focuses primarily on philosophical inquiries into the universe and the religious purposes of humanity—topics that are sometimes mentioned in the earlier writings but are explored in a more mature and organized manner here. Two of the Saṃhitās, the Sāman and the Yajus, were created primarily for ritual purposes and are largely composed of verses taken from the Ṛigveda, making them of secondary importance for our current study. The hymns of the Ṛigveda represent the earliest lyrical expressions of the Āryan settlers in India that have been passed down through generations. They are certainly not all from the same time; rather, they clearly reflect the literary efforts of many generations of poets, although we cannot yet determine their relative ages with certainty. However, the tenth (and final) book of the collection clearly exhibits characteristics of a later addition, with many of its hymns in language and spirit quite akin to the content of the Atharvan. About one-sixth of the Atharvan is also found in the Ṛigveda, especially in the tenth book; the larger portion unique to it, while likely including some older pieces, seems to have originated not long before the composition of the Brāhmaṇas.

The state of religious thought among the ancient bards, as reflected in the hymns of the Ṛigveda, is that of a worship of the grand and striking phenomena of nature regarded in the light of personal conscious beings, endowed with a power beyond the control of man, though not insensible to his praises and actions. It is a nature worship purer than that met with in any other polytheistic form of belief we are acquainted with—a mythology still comparatively little affected by those systematizing tendencies which, in a less simple and primitive state of thought, lead to the construction of a well-ordered pantheon and a regular organization of divine government. To the mind of the early Vedic worshipper the various departments of the surrounding nature are not as yet clearly defined, and the functions which he assigns to their divine representatives continually flow into one another. Nor has he yet learned to care to determine the relative worth and position of the objects of his adoration; but the temporary influence of the phenomenon to which he addresses his praises bears too strongly upon his mind to allow him for the time to consider the claims of rival powers to which at other times he is wont to look up with equal feelings of awe and reverence. It is this immediateness of impulse under which the human mind in its infancy strives to give utterance to its emotions that imparts to many of its outpourings the ring of monotheistic fervour.

The state of religious thought among the ancient bards, as shown in the hymns of the Ṛigveda, reflects a worship of the grand and striking phenomena of nature viewed as personal beings, possessing powers beyond human control but still responsive to human praise and actions. It's a form of nature worship that's purer than anything else we know in other polytheistic beliefs—a mythology that remains relatively unaffected by the systematizing tendencies that typically lead to a structured pantheon and organized divine governance in more complex states of thought. For the early Vedic worshipper, the various aspects of nature are not yet clearly defined, and the roles assigned to their divine representatives often overlap. They haven't yet developed a need to determine the relative value and status of the objects of their worship; the immediate impact of the natural phenomenon they're addressing is too strong for them to consider the claims of other powers, which they also regard with awe and reverence at different times. This immediacy of impulse, which characterizes the human mind in its early stages, gives many of its expressions a tone of monotheistic passion.

The generic name given to these impersonations, viz. deva (“the shining ones”), points to the conclusion, sufficiently justified by the nature of the more prominent objects of Vedic adoration as well as by common natural occurrences, that it was the striking phenomena of light which first and most powerfully swayed the Āryan mind. In the primitive worship of the manifold phenomena of nature it is not, of course, so much their physical aspect that impresses the human heart as the moral and intellectual forces which are supposed to move and animate them. The attributes and relations of some of the Vedic deities, in accordance with the nature of the objects they represent, partake in a high degree of this spiritual element; but it is not improbable that in an earlier phase of Āryan worship the religious conceptions were pervaded by it to a still greater and more general extent, and that the Vedic belief, though retaining many of the primitive features, has on the whole assumed a more sensuous and anthropomorphic character. This latter element is especially predominant in the attributes and imagery applied by the Vedic poets to Indra, the god of the atmospheric region, the favourite figure in their pantheon.

The generic name given to these impersonations, namely deva (“the shining ones”), suggests the conclusion, which is supported by the nature of the main objects of Vedic worship as well as by common natural events, that it was the striking phenomena of light that first and most strongly influenced the Āryan mind. In the early worship of the various phenomena of nature, it’s not so much their physical appearance that touches the human heart but the moral and intellectual forces believed to drive and enliven them. The characteristics and relationships of some of the Vedic deities, reflecting the nature of the objects they represent, carry a significant spiritual element; however, it’s likely that in an earlier stage of Āryan worship, religious concepts were infused with this element even more broadly, and that the Vedic belief, while keeping many primitive traits, has generally taken on a more sensuous and human-like character. This latter aspect is especially prominent in the traits and imagery used by the Vedic poets for Indra, the god of the atmospheric realm, a favored figure in their pantheon.

While the representatives of the prominent departments of nature appear to the Vedic bard as co-existing in a state of independence of one another, their relation to the mortal worshipper being the chief subject of his anxiety, a simple method of classification was already resorted to at an early time, consisting in a triple division of the deities into gods residing in the sky, in the air, and on earth. It is not, however, until a later stage,—the first clear indication being conveyed in a passage of the 382 tenth book of the Ṛigveda—that this attempt at a polytheistic system is followed up by the promotion of one particular god to the dignity of chief guardian for each of these three regions. On the other hand, a tendency is clearly traceable in some of the hymns towards identifying gods whose functions present a certain degree of similarity of nature; attempts which would seem to show a certain advance of religious reflection, the first steps from polytheism towards a comprehension of the unity of the divine essence. Another feature of the old Vedic worship tended to a similar result. The great problems of the origin and existence of man and the universe had early begun to engage the Hindū mind; and in celebrating the praises of the gods the poet was frequently led by his religious, and not wholly disinterested, zeal to attribute to them cosmical functions of the very highest order. At a later stage of thought, chiefly exhibited in the tenth book of the Ṛigveda and in the Atharvaveda, inquiring sages could not but perceive the inconsistency of such concessions of a supremacy among the divine rulers, and tried to solve the problem by conceptions of an independent power, endowed with all the attributes of a supreme deity, the creator of the universe, including the gods of the pantheon. The names under which this monotheistic idea is put forth are mostly of an attributive character, and indeed some of them, such as Prajāpati (“lord of creatures”), Viśvakarman (“all-worker”), occur in the earlier hymns as mere epithets of particular gods. But to other minds this theory of a personal creator left many difficulties unsolved. They saw, as the poets of old had seen, that everything around them, that man himself, was directed by some inward agent; and it needed but one step to perceive the essential sameness of these spiritual units, and to recognize their being but so many individual manifestations of one universal principle or spiritual essence. Thus a pantheistic conception was arrived at, put forth under various names, such as Purusha (“soul”), Kāma (“desire”), Brahman (neutr.; nom. sing. bráhma) (“devotion, prayer”). Metaphysical and theosophic speculations were thus fast undermining the simple belief in the old gods, until, at the time of the composition of the Brāhmanas and Upanishads, we find them in complete possession of the minds of the theologians. Whilst the theories crudely suggested in the later hymns are now further matured and elaborated, the tendency towards catholicity of formula favours the combination of the conflicting monotheistic and pantheistic conceptions; this compromise, which makes Prajāpati, the personal creator of the world, the manifestation of the impersonal Brahma, the universal self-existent soul, leads to the composite pantheistic system which forms the characteristic dogma of the Brāhmanical period (see Brahman).

While the representatives of the main aspects of nature seem to the Vedic poet to exist independently from each other, their relationship with the mortal worshipper is what mainly concerns him. An early method of classification was a simple three-part division of deities into gods of the sky, air, and earth. However, it isn't until later, with the first clear indication appearing in a passage from the Ṛigveda's tenth book, that this attempt at a polytheistic system is developed by elevating one god to be the chief guardian of each of these three realms. On the other hand, some hymns show a clear tendency to identify gods with similar functions, suggesting an advancement in religious thought—a first step from polytheism toward understanding the unity of the divine essence. Another aspect of ancient Vedic worship leaned in the same direction. The major questions about the origin and existence of humanity and the universe had begun to engage the Hindu mind early on; and while praising the gods, the poet often, driven by his religious—not entirely selfless—zeal, attributed to them significant cosmic roles. In a later stage of thought, particularly in the tenth book of the Ṛigveda and in the Atharvaveda, thoughtful sages recognized the inconsistencies in claiming supremacy among the divine rulers and sought to address the issue by proposing an independent power, possessing all the attributes of a supreme deity, the creator of the universe—including the pantheon's gods. The names used for this monotheistic idea are mostly descriptive, and some, like Prajāpati (“lord of creatures”) and Viśvakarman (“all-worker”), appear in earlier hymns as mere epithets for specific gods. However, for others, this concept of a personal creator left many questions unanswered. They observed, as the poets of old had, that everything around them—including humanity—was guided by some inner force; it took just one more step to notice the fundamental sameness of these spiritual entities and to recognize them as individual expressions of one universal principle or spiritual essence. This led to the development of a pantheistic view, expressed in various names like Purusha (“soul”), Kāma (“desire”), and Brahman (neutr.; nom. sing. bráhma) (“devotion, prayer”). Metaphysical and theosophical speculations began to undermine the simple belief in the old gods until, by the time of composing the Brāhmanas and Upanishads, these ideas completely occupied the minds of theologians. While the theories hinted at in the later hymns were further refined and developed, the inclination towards a unified formula encouraged a merging of the conflicting monotheistic and pantheistic ideas. This compromise positions Prajāpati, the personal creator of the world, as a manifestation of the impersonal Brahma, the universal self-existent soul, leading to a composite pantheistic system that defines the core beliefs of the Brāhmanical period (see Brahman).

In the Vedic hymns two classes of society, the royal (or military) and the priestly classes, were evidently recognized as being raised above the level of the Viś, or bulk of the Āryan community. These social grades seem to have been in existence even before the separation of the two Asiatic branches of the Indo-Germanic race, the Āryans of Iran and India. It is true that, although the Athrava, Rathaēstāo, and Vāśtrya of the Zend Avesta correspond in position and occupation to the Brāhman, Rājan and Viś of the Veda, there is no similarity of names between them; but this fact only shows that the common vocabulary had not yet definitely fixed on any specific names for these classes. Even in the Veda their nomenclature is by no means limited to a single designation for each of them. Moreover, Atharvan occurs not infrequently in the hymns as the personification of the priestly profession, as the proto-priest who is supposed to have obtained fire from heaven and to have instituted the rite of sacrifice; and although ratheshtha (“standing on a car”) is not actually found in connexion with the Rājan or Kshatriya, its synonym rathin is in later literature a not unusual epithet of men of the military caste. At the time of the hymns, and even during the common Indo-Persian period, the sacrificial ceremonial had already become sufficiently complicated to call for the creation of a certain number of distinct priestly offices with special duties attached to them. While this shows clearly that the position and occupation of the priest were those of a profession, the fact that the terms brāhmaṇa and brahmaputra, both denoting “the son of a brahman,” are used in certain hymns as synonyms of brahman, seems to justify the assumption that the profession had already, to a certain degree, become hereditary at the time when these hymns were composed. There is, however, with the exception of a solitary passage in a hymn of the last book, no trace to be found in the Ṛigveda of that rigid division into four castes separated from one another by insurmountable barriers, which in later times constitutes the distinctive feature of Hindū society. The idea of caste is expressed by the Sanskrit term varna, originally denoting “colour,” thereby implying differences of complexion between the several classes. The word occurs in the Veda in the latter sense, but it is used there to mark the distinction, not between the three classes of the Āryan community, but between them on the one hand and a dark-coloured hostile people on the other. The latter, called Dāsas or Dasyus, consisted, no doubt, of the indigenous tribes, with whom the Āryans had to carry on a continual struggle for the possession of the land. The partial subjection of these comparatively uncivilized tribes as the rule of the superior race was gradually spreading eastward, and their submission to a state of serfdom under the name of Śūdras, added to the Āryan community an element, totally separated from it by colour, by habits, by language, and by occupation. Moreover, the religious belief of these tribes being entirely different from that of the conquering people, the pious Āryas, and especially the class habitually engaged in acts of worship, could hardly fail to apprehend considerable danger to the purity of their own faith from too close and intimate a contact between the two races. What more natural, therefore, than that measures should have been early devised to limit the intercourse between them within as narrow bounds as possible? In course of time the difference of vocation, and the greater or less exposure to the scorching influence of the tropical sky, added, no doubt, to a certain admixture of Śūdra blood, especially in the case of the common people, seem to have produced also in the Āryan population different shades of complexion, which greatly favoured a tendency to rigid class-restrictions originally awakened and continually fed by the lot of the servile race. Meanwhile the power of the sacerdotal order having been gradually enlarged in proportion to the development of the minutiae of sacrificial ceremonial and the increase of sacred lore, they began to lay claim to supreme authority in regulating and controlling the religious and social life of the people. The author of the so-called Purusha-sūkta, or hymn of Purusha, above referred to, represents the four castes—the Brāhmaṇa, Kshatriya, Vaiśya and Śūdra—as having severally sprung respectively from the mouth, the arms, the thighs and the feet of Purusha, a primary being, here assumed to be the source of the universe. It is very doubtful, however, whether at the time when this hymn was composed the relative position of the two upper castes could already have been settled in so decided a way as this theory might lead one to suppose. There is, on the contrary, reason to believe that some time had yet to elapse, marked by fierce and bloody struggles for supremacy, of which only imperfect ideas can be formed from the legendary and frequently biased accounts of later generations, before the Kshatriyas finally submitted to the full measure of priestly authority.

In the Vedic hymns, two social classes—the royal (or military) and the priestly classes—were clearly seen as being above the level of the Viś, or the majority of the Āryan community. These social grades appear to have existed even before the two Asiatic branches of the Indo-Germanic race, the Āryans of Iran and India, separated. While the Athrava, Rathaēstāo, and Vāśtrya of the Zend Avesta correspond in position and role to the Brāhman, Rājan, and Viś of the Veda, there is no similarity in their names. This fact only indicates that a common vocabulary had not yet established specific names for these classes. Even in the Veda, their naming is not limited to a single term for each. Additionally, Atharvan frequently appears in the hymns as a representation of the priestly role, as a proto-priest who supposedly received fire from heaven and initiated the rite of sacrifice. Although ratheshtha (“standing on a car”) doesn’t appear directly associated with the Rājan or Kshatriya, its synonym rathin is commonly used later as an epithet for men of the military caste. By the time of the hymns, and even during the shared Indo-Persian period, the sacrificial rituals had already become sufficiently complex to necessitate several distinct priestly roles with specific responsibilities. This clearly shows that the role of the priest was considered a profession, and the use of the terms brāhmaṇa and brahmaputra, both meaning “the son of a brahman,” in some hymns as synonyms for brahman suggests that the profession had, to a certain extent, already begun to be hereditary when these hymns were written. However, except for one mention in a hymn from the last book, there is no evidence in the Ṛigveda of the strict four-caste division separated by insurmountable barriers, which later became a defining feature of Hindu society. The concept of caste is represented by the Sanskrit term varna, originally meaning “color,” suggesting differences in complexion among the various classes. The term appears in the Veda in this sense, but it refers not to the distinctions among the three classes of the Āryan community, but rather between them and a dark-skinned hostile group. This latter group, called Dāsas or Dasyus, consisted of the indigenous tribes that the Āryans continuously battled for control of the land. The partial subjugation of these relatively uncivilized tribes as the superior race's dominance spread eastward led to their status as serfs, referred to as Śūdras, adding a completely different element to the Āryan community that was separated by color, customs, language, and occupation. Moreover, since the religious beliefs of these tribes differed greatly from those of the conquering Āryans, especially among those engaged in worship, it’s understandable that the pious Āryas would see significant risk to the purity of their faith from close contact between the two races. Thus, it was only natural that early efforts would be made to limit interactions between them as much as possible. Over time, the difference in roles, along with varying degrees of exposure to the harsh tropical sun and some mixing of Śūdra blood, particularly among common people, led to the Āryan population developing different skin tones, which further encouraged rigid social restrictions initially sparked by the status of the servile race. Meanwhile, as the power of the priestly class grew alongside the increasing complexities of sacrificial rituals and sacred knowledge, they sought to claim supreme authority over the religious and social life of the people. The author of the Purusha-sūkta, or hymn of Purusha, represents the four castes—the Brāhmaṇa, Kshatriya, Vaiśya, and Śūdra—as emerging from the mouth, arms, thighs, and feet of Purusha, a primal being thought to be the source of the universe. However, it’s doubtful that by the time this hymn was composed, the relative status of the two upper castes was as firmly established as this theory suggests. In fact, it seems more likely that further time was still needed, marked by fierce and bloody battles for dominance, of which we can only form vague impressions from the often biased accounts of later generations, before the Kshatriyas fully accepted the authority of the priests.

The definitive establishment of the Brāhmanical hierarchy marks the beginning of the Brāhmanical period properly so called. Though the origin and gradual rise of some of the leading institutions of this era can, as has been shown, be traced in the earlier writings, the chain of their development presents a break at this juncture which no satisfactory materials as yet enable us to fill up. A considerable portion of the literature of this time has apparently been lost; and several important works, the original composition of which has probably to be assigned to the early days of Brāhmanism, such as the institutes of Manu and the two great epics, the Mahābhārata and Rāmāyana, in the form in which they have been handed down to us, show manifest traces of a more modern redaction. Yet it is sufficiently clear from internal evidence that Manu’s Code of Laws, though 383 merely a metrical recast of older materials, reproduces on the whole pretty faithfully the state of Hindū society depicted in the sources from which it was compiled. The final overthrow of the Kshatriya power was followed by a period of jealous legislation on the part of the Brāhmans. For a time their chief aim would doubtless be to improve their newly gained vantage-ground by surrounding everything relating to their order with a halo of sanctity calculated to impress the lay community with feelings of awe. In the Brāhmaṇas and even in the Purusha Hymn, and the Atharvan, divine origin had already been ascribed to the Vedic Saṃhitās, especially to the three older collections. The same privilege was now successfully claimed for the later Vedic literature, so imbued with Brāhmanic aspirations and pretensions; and the authority implied in the designation of Śruti or revelation removed henceforth the whole body of sacred writings from the sphere of doubt and criticism. This concession necessarily involved an acknowledgment of the new social order as a divine institution. Its stability was, however, rendered still more secure by the elaboration of a system of conventional precepts, partly forming the basis of Manu’s Code, which clearly defined the relative position and the duties of the several castes, and determined the penalties to be inflicted on any transgressions of the limits assigned to each of them. These laws are conceived with no sentimental scruples on the part of their authors. On the contrary, the offences committed by Brāhmans against other castes are treated with remarkable clemency, whilst the punishments inflicted for trespasses on the rights of higher classes are the more severe and inhuman the lower the offender stands in the social scale.

The establishment of the Brāhmanical hierarchy marks the start of the Brāhmanical period as we know it. While we can trace the origin and gradual rise of some major institutions from earlier writings, there's a noticeable gap in their development at this point that we still can't fully explain. A significant amount of literature from this time seems to have been lost, and some important works, likely written during the early days of Brāhmanism, such as the institutes of Manu and the two great epics, the Mahābhārata and Rāmāyana, have been passed down to us in forms that clearly show they have been edited more recently. However, it’s quite clear from the evidence within these texts that Manu's Code of Laws, although it's largely a poetic reworking of older materials, faithfully reflects the state of Hindu society described in the original sources. After the downfall of the Kshatriya power, there was a period of protective legislation by the Brāhmans. For a while, their main goal would likely have been to enhance their newly acquired position by surrounding everything related to their order with a sense of holiness meant to inspire awe in the general public. In the Brāhmaṇas and even in the Purusha Hymn and the Atharvan, a divine origin had already been attributed to the Vedic Saṃhitās, especially the three older collections. The same claim was now successfully made for the later Vedic literature, which was heavily infused with Brāhmanic aspirations and pretensions; the authority implied by the term Śruti or revelation effectively shielded the entire body of sacred texts from doubt and criticism. This acknowledgment effectively recognized the new social order as a divine institution. Its stability was further reinforced by the development of a system of established rules, partly forming the foundation of Manu's Code, which clearly defined the roles and responsibilities of the various castes and outlined the penalties for any violations of these roles. These laws were created without any sentimental considerations from their authors. In fact, offenses committed by Brāhmans against other castes were met with surprising leniency, while the penalties for offending the rights of higher classes were increasingly severe and cruel, the lower the offender's status in the social hierarchy.

The three first castes, however unequal to each other in privilege and social standing, are yet united by a common bond of sacramental rites (saṃskāras), traditionally connected from ancient times with certain incidents and stages in the life of the Āryan Hindū, as conception, birth, name-giving, the first taking out of the child to see the sun, the first feeding with boiled rice, the rites of tonsure and hair-cutting, the youth’s investiture with the sacrificial thread, and his return home on completing his studies, marriage, funeral, &c. The modes of observing these family rites are laid down in a class of writings called Gṛihya-sūtras, or domestic rules. The most important of these observances is the upanayana, or rite of conducting the boy to a spiritual teacher. Connected with this act is the investiture with the sacred cord, ordinarily worn over the left shoulder and under the right arm, and varying in material according to the class of the wearer. This ceremony being the preliminary act to the youth’s initiation into the study of the Veda, the management of the consecrated fire and the knowledge of the rites of purification, including the sāvitrī, a solemn invocation to Savitṛi, the sun (probl. Saturnus),—as a rule the verse Ṛigv. iii. 62. 10, also called gāyatrī from the metre in which it is composed—which has to be repeated every morning and evening before the rise and after the setting of that luminary, is supposed to constitute the second or spiritual birth of the Ārya. It is from their participation in this rite that the three upper classes are called the twice-born. The ceremony is enjoined to take place some time between the eighth and sixteenth year of age in the case of a Brāhman, between the eleventh and twenty-second year of a Kshatriya, and between the twelfth and twenty-fourth year of a Vaiśya. He who has not been invested with the mark of his class within this time is for ever excluded from uttering the sacred sāvitrī and becomes an outcast, unless he is absolved from his sin by a council of Brāhmans, and after due performance of a purificatory rite resumes the badge of his caste. With one not duly initiated no righteous man is allowed to associate or to enter into connexions of affinity. The duty of the Śudra is to serve the twice-born classes, and above all the Brāhmans. He is excluded from all sacred knowledge, and if he performs sacrificial ceremonies he must do so without using holy mantras. No Brāhman must recite a Vedic text where a man of the servile caste might overhear him, nor must he even teach him the laws of expiating sin. The occupations of the Vaiśya are those connected with trade, the cultivation of the land and the breeding of cattle; while those of a Kshatriya consist in ruling and defending the people, administering justice, and the duties of the military profession generally. Both share with the Brāhman the privilege of reading the Veda, but only so far as it is taught and explained to them by their spiritual preceptor. To the Brāhman belongs the right of teaching and expounding the sacred texts, and also that of interpreting and determining the law and the rules of caste. Only in exceptional cases, when no teacher of the sacerdotal class is within reach, the twice-born youth, rather than forego spiritual instruction altogether, may reside in the house of a non-Brāhmanical preceptor; but it is specially enjoined that a pupil, who seeks the path to heaven, should not fail, as soon as circumstances permit, to resort to a Brāhman well versed in the Vedas and their appendages.

The first three castes, although unequal in privilege and social status, are united by a common set of sacramental rituals (saṃskāras) that have been traditionally associated with specific events and stages in the life of an Āryan Hindu, such as conception, birth, naming, the first outing to see the sun, the first feeding of boiled rice, tonsure and hair-cutting ceremonies, the boy’s initiation with the sacred thread, and his return home after completing his studies, marriage, and funerals, among others. The ways to observe these family rites are outlined in a set of texts called Gṛihya-sūtras, or domestic rules. The most significant of these rituals is the upanayana, or the ceremony of bringing the boy to a spiritual teacher. This act includes the wearing of a sacred cord, usually draped over the left shoulder and under the right arm, with its material varying depending on the person’s caste. This ceremony marks the first step in the boy’s initiation into studying the Veda, managing the sacred fire, and learning purification rituals, including the sāvitrī, a solemn invocation to Savitṛi, the sun (possibly Saturn), specifically the verse Ṛigv. iii. 62. 10, also known as gāyatrī because of its meter, which must be recited every morning before the sun rises and every evening after it sets. This is believed to constitute the second or spiritual birth of the Ārya. This participation in the rite is why the three upper classes are called the twice-born. The ceremony is required to take place sometime between the age of eight and sixteen for a Brāhman, between eleven and twenty-two for a Kshatriya, and between twelve and twenty-four for a Vaiśya. If someone hasn’t received this mark of their caste within that timeframe, they are permanently barred from reciting the sacred sāvitrī and become an outcast, unless absolved by a council of Brāhmans and after performing a purification rite to reclaim their caste status. No righteous person may associate or enter into familial connections with someone who is not properly initiated. The duty of the Śudra is to serve the twice-born classes, especially the Brāhmans. They are excluded from all sacred knowledge, and if they perform any sacrificial rites, they must do so without chanting any holy mantras. No Brāhman should recite a Vedic text where a person of the servile caste could overhear, nor should they teach them about the laws of atonement for sin. The Vaiśya's roles involve trade, agricultural cultivation, and livestock management; while Kshatriyas are responsible for ruling and protecting the people, administering justice, and generally fulfilling military duties. Both castes share with the Brāhmans the privilege of reading the Veda, but only to the extent that it is taught and explained to them by their spiritual teacher. The Brāhman holds the right to teach and interpret the sacred texts, as well as to define the law and caste rules. Only in exceptional circumstances, when there is no priest available, can a twice-born youth seek spiritual instruction from a non-Brāhmanical teacher; however, it is especially emphasized that a student on the path to enlightenment should, as soon as possible, find a Brāhman who is well-versed in the Vedas and their teachings.

Notwithstanding the barriers placed between the four castes, the practice of intermarrying appears to have been too prevalent in early times to have admitted of measures of so stringent a nature as wholly to repress it. To marry a woman of a higher caste, and especially of a caste not immediately above one’s own, is, however, decidedly prohibited, the offspring resulting from such a union being excluded from the performance of the śrāddha or obsequies to the ancestors, and thereby rendered incapable of inheriting any portion of the parents’ property. On the other hand, a man is at liberty, according to the rules of Manu, to marry a girl of any or each of the castes below his own, provided he has besides a wife belonging to his own class, for only such a one should perform the duties of personal attendance and religious observance devolving upon a married woman. As regards the children born from unequal marriages of this description, they have the rights and duties of the twice-born, if their mother belong to a twice-born caste, otherwise they, like the offspring of the former class of intermarriages, share the lot of the Śūdra, and are excluded from the investiture and the sāvitrī. For this last reason the marriage of a twice-born man with a Śūdra woman is altogether discountenanced by some of the later law books. At the time of the code of Manu the intermixture of the classes had already produced a considerable number of intermediate or mixed castes, which were carefully defined, and each of which had a specific occupation assigned to it as its hereditary profession.

Despite the barriers set between the four castes, intermarriage seems to have been too common in ancient times for strict measures to fully prevent it. Marrying a woman from a higher caste, especially one not immediately above one's own, is definitely prohibited. The children from such unions are excluded from performing the śrāddha, or the ancestral rites, and thus cannot inherit any part of their parents’ property. Conversely, a man is allowed, according to the rules of Manu, to marry a girl from any lower caste, as long as he has a wife from his own caste to fulfill the duties of personal care and religious observance that a married woman is expected to perform. Regarding children from these unequal marriages, they have the rights and responsibilities of the twice-born if their mother is from a twice-born caste; otherwise, like the children from the earlier forms of intermarriage, they are considered Śūdra and are excluded from the investiture and the sāvitrī. For this reason, the marriage of a twice-born man to a Śūdra woman is completely discouraged by some later law books. By the time of the code of Manu, the mixing of classes had already created a significant number of intermediate or mixed castes, each defined carefully and assigned a specific hereditary occupation.

The self-exaltation of the first class was not, it would seem, altogether due to priestly arrogance and ambition; but, like a prominent feature of the post-Vedic belief, the transmigration of souls, it was, if not the necessary, yet at least a natural consequence of the pantheistic doctrine. To the Brāhmanical speculator who saw in the numberless individual existences of animate nature but so many manifestations of the one eternal spirit, to union with which they were all bound to tend as their final goal of supreme bliss, the greater or less imperfection of the material forms in which they were embodied naturally presented a continuous scale of spiritual units from the lowest degradation up to the absolute purity and perfection of the supreme spirit. To prevent one’s sinking yet lower, and by degrees to raise one’s self in this universal gradation, or, if possible, to attain the ultimate goal immediately from any state of corporeal existence, there was but one way—subjection of the senses, purity of life and knowledge of the deity. “He” (thus ends the code of Manu) “who in his own soul perceives the supreme soul in all beings and acquires equanimity toward them all, attains the highest state of bliss.” Was it not natural then that the men who, if true to their sacred duties, were habitually engaged in what was most conducive to these spiritual attainments, that the Brāhmanical class early learnt to look upon themselves, even as a matter of faith, as being foremost among the human species in this universal race for final beatitude? The life marked out for them by that stern theory of class duties which they themselves had worked out, and which, no doubt, must have been practised in early times at least in some degree, was by no means one of ease and amenity. It was, on the contrary, singularly calculated to promote that complete mortification of the instincts of animal nature which they considered as indispensable to the 384 final deliverance from saṃsāra, the revolution of bodily and personal existence.

The self-promotion of the upper class didn’t solely stem from the arrogance and ambition of the priests; rather, like a key aspect of post-Vedic beliefs such as the cycle of reincarnation, it was a natural outcome of the pantheistic idea. For the Brāhmanical thinker who perceived the infinite individual lives in nature as mere expressions of a single eternal spirit—toward which all beings were ultimately meant to strive for supreme happiness—the varying degrees of imperfection in the physical forms they inhabited represented a continuous scale of spiritual levels, from the lowest to the ultimate purity and perfection of the supreme spirit. To avoid descending further, and to gradually elevate oneself in this universal hierarchy, or ideally to reach the final goal directly from any physical state, there was only one path—mastering the senses, living a pure life, and knowing the divine. “He” (thus concludes the code of Manu) “who perceives the supreme soul within his own soul and achieves equanimity toward all beings reaches the highest state of bliss.” Was it any surprise that those who, if dedicated to their sacred duties, were constantly involved in pursuits that facilitated these spiritual achievements, came to view themselves—almost as an article of faith—as the leaders among humanity in this universal quest for ultimate happiness? The life prescribed for them by the rigid theory of class responsibilities they developed, which must have been practiced, at least to some extent, in early times, was by no means one of comfort and ease. On the contrary, it was specifically designed to encourage the complete suppression of animal instincts, which they believed was essential for liberation from saṃsāra, the cycle of physical and personal existence.

The pious Brāhman, longing to attain the summum bonum on the dissolution of his frail body, was enjoined to pass through a succession of four orders or stages of life, viz. those of brahmachārin, or religious student; gṛihastha (or gṛihamedhin), or householder; vanavāsin (or vānaprastha), or anchorite; and sannyāsin (or bhikshu), or religious mendicant. Theoretically this course of life was open and even recommended to every twice-born man, his distinctive class-occupations being in that case restricted to the second station, or that of married life. Practically, however, those belonging to the Kshatriya and Vaiśya castes were, no doubt, contented, with few exceptions, to go through a term of studentship in order to obtain a certain amount of religious instruction before entering into the married state, and plying their professional duties. In the case of the sacerdotal class, the practice probably was all but universal in early times; but gradually a more and more limited proportion even of this caste seem to have carried their religious zeal to the length of self-mortification involved in the two final stages. On the youth having been invested with the badge of his caste, he was to reside for some time in the house of some religious teacher, well read in the Veda, to be instructed in the knowledge of the scriptures and the scientific or theoretic treatises attached to them, in the social duties of his caste, and in the complicated system of purificatory and sacrificial rites. According to the number of Vedas he intended to study, the duration of this period of instruction was to be, probably in the case of Brāhmanical students chiefly, of from twelve to forty-eight years; during which time the virtues of modesty, duty, temperance and self-control were to be firmly implanted in the youth’s mind by his unremitting observance of the most minute rules of conduct. During all this time the student had to subsist entirely on food obtained by begging from house to house; and his behaviour towards the preceptor and his family was to be that prompted by respectful attachment and implicit obedience. In the case of girls no investiture takes place, but for them the nuptial ceremony is considered as an equivalent to that rite. On quitting the teacher’s abode, the young man returns to his family and takes a wife. To die without leaving legitimate offspring, and especially a son, capable of performing the periodical rite of obsequies (śrāddha), consisting of offerings of water and balls of rice, to himself and his two immediate ancestors, is considered a great misfortune by the orthodox Hindū. There are three sacred “debts” which a man has to discharge in life, viz. that which is due to the gods, and of which he acquits himself by daily worship and sacrificial rites; that due to the ṛishis, or ancient sages and inspired seers of the Vedic texts, discharged by the daily study of the scripture; and the “final debt” which he owes to his manes, and of which he relieves himself by leaving a son. To these three some authorities add a fourth, viz. the debt owing to humankind, which demands his continually practising kindness and hospitality. Hence the necessity of a man’s entering into the married state. When the bridegroom leads the bride from her father’s house to his own home, and becomes a gṛiha-paṭi, or householder, the fire which has been used for the marriage ceremony accompanies the couple to serve them as their gārhapatya, or domestic fire. It has to be kept up perpetually, day and night, either by themselves or their children, or, if the man be a teacher, by his pupils. If it should at any time become extinguished by neglect or otherwise, the guilt incurred thereby must be atoned for by an act of expiation. The domestic fire serves the family for preparing their food, for making the five necessary daily and other occasional offerings, and for performing the sacramental rites above alluded to. No food should ever be eaten that has not been duly consecrated by a portion of it being offered to the gods, the beings and the manes. These three daily offerings are also called by the collective name of vaiśvadeva, or sacrifice “to all the deities.” The remaining two are the offering to Brahmă, i.e. the daily lecture of the scriptures, accompanied by certain rites, and that to men, consisting in the entertainment of guests. The domestic observances—many of them probably ancient Āryan family customs, surrounded by the Hindūs with a certain amount of adventitious ceremonial—were generally performed by the householder himself, with the assistance of his wife. There is, however, another class of sacrificial ceremonies of a more pretentious and expensive kind, called śrauta rites, or rites based on śritu, or revelation, the performance of which, though not indispensable, were yet considered obligatory under certain circumstances (see Brāhmaṇa). They formed a very powerful weapon in the hands of the priesthood, and were one of the chief sources of their subsistence. However great the religious merit accruing from these sacrificial rites, they were obviously a kind of luxury which only rich people could afford to indulge in. They constituted, as it were, a tax, voluntary perhaps, yet none the less compulsory, levied by the priesthood on the wealthy laity.

The devout Brāhman, eager to achieve the ultimate goal after the end of his fragile life, was instructed to go through a series of four stages or orders of life: first as a brahmachārin, or religious student; then as a gṛihastha (or gṛihamedhin), or householder; next as a vanavāsin (or vānaprastha), or ascetic; and finally as a sannyāsin (or bhikshu), or religious mendicant. This pathway was theoretically available and even encouraged for every twice-born man, with his specific caste occupations limited mainly to the second stage, or married life. In practice, however, those from the Kshatriya and Vaiśya castes were generally satisfied, with few exceptions, to spend some time as students to gain a basic level of religious knowledge before entering marriage and pursuing their careers. Among the priestly class, this practice was likely nearly universal in early times, but over time fewer of this caste seemed to maintain their religious fervor to the extent of undertaking the self-discipline involved in the last two stages. Once the young man received the symbol of his caste, he was to live for a while in the home of a knowledgeable religious teacher, well-versed in the Vedas, to learn the scriptures and their related texts, the social responsibilities of his caste, and the complex system of purification and sacrificial rituals. Based on the number of Vedas he intended to study, this period of learning was likely to last between twelve and forty-eight years, particularly for Brāhman students; during this time, the virtues of modesty, duty, temperance, and self-control were to be instilled in the young man's mind through strict adherence to meticulous behavioral rules. Throughout this period, the student had to rely entirely on food collected through begging from house to house, and his conduct toward his teacher and the teacher's family was to reflect respectful attachment and absolute obedience. For girls, there is no initiation; their wedding ceremony is regarded as equivalent to that rite. After leaving the teacher's home, the young man returns to his family and marries. Dying without having legitimate offspring, especially a son capable of performing the ritual of obsequies (śrāddha), which involves making offerings of water and rice balls for himself and his two immediate ancestors, is seen as a significant misfortune by orthodox Hindus. A man has three sacred "debts" to settle in life: the one to the gods, which he fulfills through daily worship and sacrifices; the one owed to the ṛishis, or ancient sages and seers of the Vedic texts, which he fulfills by studying the scriptures daily; and the "final debt" he owes to his manes, which he fulfills by having a son. Some scholars add a fourth debt to humankind, requiring him to constantly practice kindness and hospitality. This emphasizes the importance of marriage for a man. When the bridegroom takes the bride from her father's house to his own, becoming a gṛiha-paṭi, or householder, the fire used in the wedding ceremony accompanies the couple as their gārhapatya, or domestic fire. It must be kept burning continuously, day and night, either by themselves, their children, or, if the man is a teacher, by his students. If it ever goes out due to neglect or any other reason, the guilt incurred must be atoned for through an act of expiation. The domestic fire provides the family with a means to cook their food, make the five daily offerings, and carry out the sacramental rites previously mentioned. No food should be consumed that hasn’t been properly consecrated, with a portion offered to the gods, ancestors, and manes. These three daily offerings are collectively referred to as vaiśvadeva, or sacrifice "to all the deities." The other two offerings include one to Brahmā, which involves a daily recitation of the scriptures accompanied by specific rites, and one to humans, consisting of hosting guests. The household rituals—many of which may be ancient Indo-Aryan customs, accompanied by certain additional ceremonies within Hinduism—were generally conducted by the householder himself, with his wife's assistance. There is also a different category of more elaborate and costly sacrificial ceremonies known as śrauta rites, based on śruti, or revelation, which, while not essential, were deemed obligatory under certain conditions (see Brāhmaṇa). They served as a significant tool for the priesthood and were a primary source of their livelihood. Despite the great religious merit gained from these sacrificial rites, they were essentially a luxury only wealthy individuals could afford. They functioned like a tax, perhaps voluntary, yet nonetheless compulsory, imposed by the priesthood on affluent laypeople.

When the householder is advanced in years, “when he perceives his skin become wrinkled and his hair grey, when he sees the son of his son,” the time is said to have come for him to enter the third stage of life. He should now disengage himself from all family ties—except that his wife may accompany him, if she chooses—and repair to a lonely wood, taking with him his sacred fires and the implements required for the daily and periodical offerings. Clad in a deer’s skin, in a single piece of cloth, or in a bark garment, with his hair and nails uncut, the hermit is to subsist exclusively on food growing wild in the forest, such as roots, green herbs, and wild rice and grain. He must not accept gifts from any one, except of what may be absolutely necessary to maintain him; but with his own little hoard he should, on the contrary, honour, to the best of his ability, those who visit his hermitage. His time must be spent in reading the metaphysical treatises of the Veda, in making oblations, and in undergoing various kinds of privation and austerities, with a view to mortifying his passions and producing in his mind an entire indifference to worldly objects. Having by these means succeeded in overcoming all sensual affections and desires, and in acquiring perfect equanimity towards everything around him, the hermit has fitted himself for the final and most exalted order, that of devotee or religious mendicant. As such he has no further need of either mortifications or religious observances; but “with the sacrificial fires reposited in his mind,” he may devote the remainder of his days to meditating on the divinity. Taking up his abode at the foot of a tree in total solitude, “with no companion but his own soul,” clad in a coarse garment, he should carefully avoid injuring any creature or giving offence to any human being that may happen to come near him. Once a day, in the evening, “when the charcoal fire is extinguished and the smoke no longer issues from the fire-places, when the pestle is at rest, when the people have taken their meals and the dishes are removed,” he should go near the habitations of men, in order to beg what little food may suffice to sustain his feeble frame. Ever pure of mind he should thus bide his time, “as a servant expects his wages,” wishing neither for death nor for life, until at last his soul is freed from its fetters and absorbed in the eternal spirit, the impersonal self-existent Brahmă.

When a man gets older, “when he notices his skin getting wrinkled and his hair turning grey, when he sees his grandson,” it's time for him to enter the third stage of life. He should detach himself from all family ties—except that his wife can join him if she wants—and go to a secluded forest, bringing his sacred fires and the tools needed for daily and regular offerings. Dressed in a deer skin, a single piece of cloth, or bark, with uncut hair and nails, the hermit should only eat food that grows wild in the forest, like roots, greens, and wild rice and grains. He shouldn’t accept gifts from anyone, except for what is absolutely necessary to survive; instead, he should use his own limited resources to honor, as best he can, those who visit his hermitage. His time should be spent reading the philosophical texts of the Veda, making offerings, and practicing various forms of self-denial and austerity to suppress his desires and cultivate complete indifference to worldly things. By overcoming all sensual attachments and achieving total calmness towards everything around him, the hermit prepares himself for the final and highest stage, that of a devotee or religious beggar. At this point, he no longer needs to practice self-denial or religious rituals; instead, “with the sacrificial fires housed in his mind,” he can spend the rest of his days meditating on the divine. Living at the base of a tree in complete isolation, “with no companion but his own soul,” dressed in a rough garment, he must carefully avoid harming any creature or offending any person nearby. Once a day, in the evening, “when the charcoal fire is out and no smoke rises from the hearth, when the pestle is still, when people have eaten and cleared their dishes,” he should approach human dwellings to ask for enough food to sustain his frail body. Always pure of mind, he should wait patiently, “like a servant awaiting his pay,” desiring neither death nor life, until finally his soul breaks free from its constraints and merges with the eternal spirit, the impersonal self-existent Brahmā.

The tendency towards a comprehension of the unity of the divine essence had resulted in some minds, as has been remarked before, in a kind of monotheistic notion of the origin of the universe. In the literature of the Brāhmaṇa period we meet with this conception as a common element of speculation; and so far from its being considered incompatible with the existence of a universal spirit, Prajāpati, the personal creator of the world, is generally allowed a prominent place in the pantheistic theories. Yet the state of theological speculation, reflected in these writings, is one of transition. The general drift of thought is essentially pantheistic, but it is far from being reduced to a regular system, and the ancient form of belief still enters largely into it. The attributes of Prajāpati, in the same way, have in them elements of a purely polytheistic nature, and some of the attempts at reconciling this new-fangled deity with the traditional belief are somewhat awkward. An ancient classification of the gods represented them as being thirty-three 385 in number, eleven in each of the three worlds or regions of nature. These regions being associated each with the name of one principal deity, this division gave rise at a later time to the notion of a kind of triple divine government, consisting of Agni (fire), Indra sky) or Vāyu (wind), and Sūrya (sun), as presiding respectively over the gods on earth, in the atmosphere, and in the sky. Of this Vedic triad mention is frequently made in the Brāhmaṇa writings. On the other hand the term prajāpati (lord of creatures), which in the Ṛigveda occurs as an epithet of the sun, is also once in the Atharvaveda applied jointly to Indra and Agni. In the Brāhmaṇas Prajāpati is several times mentioned as the thirty-fourth god; whilst in one passage he is called the fourth god, and made to rule over the three worlds. More frequently, however, the writings of this period represent him as the maker of the world and the father or creator of the gods. It is clear from this discordance of opinion on so important a point of doctrine, that at this time no authoritative system of belief had been agreed upon by the theologians. Yet there are unmistakable signs of a strong tendency towards constructing one, and it is possible that in yielding to it the Brāhmans may have been partly prompted by political considerations. The definite settlement of the caste system and the Brāhmanical supremacy must probably be assigned to somewhere about the close of the Brāhmaṇa period. Division in their own ranks was hardly favourable to the aspirations of the priests at such a time; and the want of a distinct formula of belief adapted to the general drift of theological speculation, to which they could all rally, was probably felt the more acutely, the more determined a resistance the military class was likely to oppose to their claims. Side by side with the conception of the Brahmă, the universal spiritual principle, with which speculative thought had already become deeply imbued, the notion of a supreme personal being, the author of the material creation, had come to be considered by many as a necessary complement of the pantheistic doctrine. But, owing perhaps to his polytheistic associations and the attributive nature of his name, the person of Prajāpati seems to have been thought but insufficiently adapted to represent this abstract idea. The expedient resorted to for solving the difficulty was as ingenious as it was characteristic of the Brāhmanical aspirations. In the same way as the abstract denomination of sacerdotalism, the neuter brahmă, had come to express the divine essence, so the old designation of the individual priest, the masculine term brahmā, was raised to denote the supreme personal deity which was to take the place and attributes of the Prajāpati of the Brāhmaṇas and Upanishads (see Brahman).

The movement towards understanding the unity of the divine essence led some thinkers, as previously noted, to develop a sort of monotheistic idea about the universe's origin. In the literature from the Brāhmaṇa period, this idea appears as a common theme; and rather than being seen as incompatible with the existence of a universal spirit, Prajāpati, the personal creator of the world, usually holds a significant role in pantheistic theories. However, the state of theological speculation evident in these writings is one of transition. The prevailing thought is basically pantheistic, but it hasn't been thoroughly systematized, and traditional beliefs still play a large part in it. The traits of Prajāpati also include elements of a purely polytheistic nature, and some efforts to reconcile this new deity with traditional beliefs seem somewhat clumsy. An ancient classification of the gods listed them as thirty-three in total, with eleven in each of the three worlds or spheres of nature. Each of these regions was linked to the name of a principal deity, creating a later concept of a sort of triple divine governance, represented by Agni (fire), Indra (sky), or Vāyu (wind), and Sūrya (sun), presiding over the gods on earth, in the atmosphere, and in the sky, respectively. This Vedic triad is frequently mentioned in Brāhmaṇa texts. On the other hand, the term prajāpati (lord of creatures), which appears in the Ṛigveda as a descriptor for the sun, is also used in the Atharvaveda to refer to both Indra and Agni together. In the Brāhmaṇas, Prajāpati is mentioned several times as the thirty-fourth god; in one instance, he is called the fourth god and made to rule over the three worlds. More often, however, the writings from this time depict him as the creator of the world and the father or creator of the gods. This inconsistency in such a crucial doctrinal matter indicates that no authoritative belief system had been established among theologians at this time. Yet, there are clear signs of a strong inclination to create one, and it's possible that the Brāhmans were partly motivated by political factors in yielding to this tendency. The solidification of the caste system and Brāhmanical supremacy likely happened towards the end of the Brāhmaṇa period. Division among themselves was not beneficial to the ambitions of the priests at such a pivotal moment; and the lack of a clear belief formula that they could all unite around was probably felt more acutely as the military class was likely to resist their claims. Alongside the idea of Brahmā, the universal spiritual principle that speculative thought had already embraced, many began to view the concept of a supreme personal being, the creator of material existence, as a necessary complement to pantheistic doctrine. However, perhaps due to his polytheistic connections and the descriptive nature of his name, Prajāpati seemed inadequately suited to represent this abstract idea. The solution devised was as clever as it was reflective of Brāhmanical aspirations. Just as the abstract term for priesthood, the neuter brahmā, came to express divine essence, the old term for an individual priest, the masculine brahmā, was elevated to signify the supreme personal deity meant to embody the characteristics of the Prajāpati from the Brāhmaṇas and Upanishads (see Brahman).

However the new dogma may have answered the purposes of speculative minds, it was not one in which the people generally were likely to have been much concerned; an abstract, colourless deity like Brahmā could awake no sympathies in the hearts of those accustomed to worship gods of flesh and blood. Indeed, ever since the primitive symbolical worship of nature had undergone a process of disintegration under the influence of metaphysical speculation, the real belief of the great body of the people had probably become more and more distinct from that of the priesthood. In different localities the principal share of their affection may have been bestowed on one or another of the old gods who was thereby raised to the dignity of chief deity; or new forms and objects of belief may have sprung up with the intellectual growth of the people. In some cases even the worship of the indigenous population could hardly have remained without exercising some influence in modifying the belief of the Āryan race. In this way a number of local deities would grow up, more or less distinct in name and characteristics from the gods of the Vedic pantheon. There is, indeed, sufficient evidence to show that, at a time when, after centuries of theological speculations, some little insight into the life and thought of the people is afforded by the literature handed down to us, such a diversity of worship did exist. Under these circumstances the policy which seems to have suggested itself to the priesthood, anxious to retain a firm hold on the minds of the people, was to recognize and incorporate into their system some of the most prominent objects of popular devotion, and thereby to establish a kind of catholic creed for the whole community subject to the Brāhmanical law. At the time of the original composition of the great epics two such deities, Śiva or Mahādeva (“the great god”) and Vishṇu, seem to have been already admitted into the Brāhmanical system, where they have ever since retained their place; and from the manner in which they are represented in those works, it would, indeed, appear that both, and especially the former, enjoyed an extensive worship. As several synonyms are attributed to each of them, it is not improbable that in some of these we have to recognize special names under which the people in different localities worshipped these gods, or deities of a similar nature which, by the agency of popular poetry, or in some other way, came to be combined with them. The places assigned to them in the pantheistic system were coordinate with that of Brahmā; the three deities, Brahmā, Vishnu and Śiva, were to represent a triple impersonation of the divinity, as manifesting itself respectively in the creation, preservation and destruction of the universe. Śiva does not occur in the Vedic hymns as the name of a god, but only as an adjective in the sense of “kind, auspicious.” One of his synonyms, however, is the name of a Vedic deity, the attributes and nature of which show a good deal of similarity to the post-Vedic god. This is Rudra, the god of the roaring storm, usually portrayed, in accordance with the element he represents, as a fierce, destructive deity, “terrible as a wild beast,” whose fearful arrows cause death and disease to men and cattle. He is also called kapardin (“wearing his hair spirally braided like a shell”), a word which in later times became one of the synonyms of Śiva. The Atharvaveda mentions several other names of the same god, some of which appear even placed together, as in one passage Bhava, Sarva, Rudra and Paśupati. Possibly some of them were the names under which one and the same deity was already worshipped in different parts of northern India. This was certainly the case in later times, since it is expressly stated in one of the later works of the Brahmaṇa period, that Sarva was used by the Eastern people and Bhava by a Western tribe. It is also worthy of note that in the same work (the Śatapatha-brāhmaṇa), composed at a time when the Vedic triad of Agni, Indra-Vāyu and Sūrya was still recognized, attempts are made to identify this god of many names with Agni; and that in one passage in the Mahābhārata it is stated that the Brāhmans said that Agni was Śiva. Although such attempts at an identification of the two gods remained isolated, they would at least seem to point to the fact that, in adapting their speculations to the actual state of popular worship, the Brāhmans kept the older triad distinctly in view, and by means of it endeavoured to bring their new structure into harmony with the ancient Vedic belief. It is in his character as destroyer that Śiva holds his place in the triad, and that he must, no doubt, be identified with the Vedic Rudra. Another very important function appears, however, to have been early assigned to him, on which much more stress is laid in his modern worship—that of destroyer being more especially exhibited in his consort—viz. the character of a generative power, symbolized in the phallic emblem (linga) and in the sacred bull (Nandi), the favourite attendant of the god. This feature being entirely alien from the nature of the Vedic god, it has been conjectured with some plausibility, that the linga-worship was originally prevalent among the non-Āryan population, and was thence introduced into the worship of Śiva. On the other hand, there can, we think, be little doubt that Śiva, in his generative faculty, is the representative of another Vedic god whose nature and attributes go far to account for this particular feature of the modern deity, viz. Pūshan. This god, originally, no doubt, a solar deity, is frequently invoked, as the lord of nourishment, to bestow food, wealth and other blessings. He is once, jointly with Soma, called the progenitor of heaven and earth, and is connected with the marriage ceremony, where he is asked to lead the bride to the bridegroom and make her prosperous (Śivatamā). Moreover, he has the epithet kapardin (spirally braided), as have Rudra and the later Śiva, and is called Paśupa, or guardian of cattle, whence the latter derives his name Paśupati. But he is also a 386 strong, powerful, and even fierce and destructive god, who, with his goad or golden spear, smites the foes of his worshipper, and thus in this respect offers at least some points of similarity to Rudra, which may have favoured the fusion of the two gods. As regards Vishṇu, this god occupies already a place in the Vedic mythology, though by no means one of such prominence as would entitle him to that degree of exaltation implied in his character as one of the three hypostases of the divinity. Moreover, although in his general nature, as a benevolent, genial being, the Vedic god corresponds on the whole to the later Vishṇu, the preserver of the world, the latter exhibits many important features for which we look in vain in his prototype, and which most likely resulted from sectarian worship or from an amalgamation with local deities. In one or two of them, such as his names Vāsudeva and Vaikuntha, an attempt may again be traced to identify Vishṇu with Indra, who, as we have seen, was one of the Vedic triad of gods. The characteristic feature of the elder Vishṇu is his measuring the world with his three strides, which are explained as denoting either the three stations of the sun at the time of rising, culminating and setting, or the triple manifestation of the luminous element, as the fire on earth, the lightning in the atmosphere and the sun in the heavens.

However the new doctrine may have met the needs of speculative thinkers, it wasn't something that most people were likely to care about; an abstract, colorless deity like Brahmā couldn't inspire any feelings in those used to worshipping gods with human traits. In fact, ever since the original symbolic worship of nature had broken down due to metaphysical speculation, the real beliefs of the majority of the people had probably diverged more and more from those of the priesthood. In various regions, people likely showed their affection to different old gods, elevating one or another to the status of chief deity; or new forms and objects of belief may have emerged as the population's intellect grew. In some instances, the worship of the indigenous people likely influenced the beliefs of the Āryan race. Thus, a number of local deities would develop, differing in name and characteristics from the gods of the Vedic pantheon. Indeed, there's plenty of evidence that, during a period when some insight into the life and thought of the people was offered by the literature we have, a diversity of worship existed. Given these circumstances, the strategy that seems to have occurred to the priesthood, eager to maintain their influence over the people's minds, was to acknowledge and integrate some of the most significant objects of popular devotion into their system, thereby establishing a kind of unified doctrine for the entire community under Brāhmanical law. At the time of the original composition of the great epics, two deities, Śiva or Mahādeva (“the great god”) and Vishṇu, had seemingly been welcomed into the Brāhmanical system, where they have since maintained their positions; and from how they are depicted in those texts, it appears both, especially the former, received extensive worship. Several synonyms are associated with each, and it’s likely that some of these represent special names under which people in different regions worshipped these gods, or similar deities that merged with them through popular poetry or other means. Their roles in the pantheistic system were equal to that of Brahmā; the three deities, Brahmā, Vishnu, and Śiva, symbolized a tripartite representation of divinity, reflecting creation, preservation, and destruction of the universe. Śiva doesn't appear in Vedic hymns as the name of a god, but rather as an adjective meaning “kind, auspicious.” However, one of his synonyms is linked to a Vedic deity, whose attributes and nature closely align with the later god. This is Rudra, the god of the roaring storm, typically depicted—as fitting for his elemental nature—as a fierce, destructive deity, “terrible as a wild beast,” whose frightening arrows inflict death and disease on people and livestock. He is also referred to as kapardin (“wearing his hair spirally braided like a shell”), a term that later became one of the synonyms for Śiva. The Atharvaveda lists several other names for this god, some of which seem to be grouped together, as in one passage: Bhava, Sarva, Rudra, and Paśupati. Some of these may have been names under which a single deity was already worshipped in various parts of northern India. This was certainly true in later times, as one of the later Brahmanic texts states that Sarva was used by people in the East and Bhava by a tribe in the West. It's also noteworthy that in the same work (the Śatapatha-brāhmaṇa), created while the Vedic triad of Agni, Indra-Vāyu, and Sūrya was still acknowledged, there are attempts to identify this multi-named god with Agni; and in a passage in the Mahābhārata, it's mentioned that the Brāhmans considered Agni to be Śiva. Although such attempts to merge the two gods were isolated, they seem to indicate that when adapting their speculations to existing popular worship, the Brāhmans kept the older triad clearly in mind and, through it, sought to align their new system with the ancient Vedic beliefs. In his role as destroyer, Śiva fits into this triad, and he must, without doubt, be linked to the Vedic Rudra. However, another very important role appears to have been assigned to him early on, which is emphasized much more in his modern worship—that of destroyer, particularly illustrated through his consort—namely, the role as a generative force, symbolized in the phallic emblem (linga) and in the sacred bull (Nandi), the god's favored companion. This aspect, being entirely alien to the nature of the Vedic god, has led to speculation that the linga-worship was originally practiced by the non-Āryan population and was later incorporated into the worship of Śiva. On the other hand, there is little doubt that Śiva, in his generative aspect, represents another Vedic god whose characteristics and attributes explain this specific feature of the modern deity, namely Pūshan. This god, originally likely a solar deity, is often called upon as the lord of nourishment, to provide food, wealth, and other blessings. He is once referred to, along with Soma, as the progenitor of heaven and earth, and he plays a role in the marriage ceremony, where he is asked to guide the bride to the bridegroom and ensure her prosperity (Śivatamā). Moreover, he shares the title kapardin (spirally braided) with Rudra and the later Śiva, and is known as Paśupa, or guardian of cattle, from which Śiva gets the name Paśupati. However, he is also a 386 strong, powerful, and even fierce and destructive god, who, armed with his goad or golden spear, strikes down his worshipper's enemies, which offers at least some points of similarity to Rudra, potentially aiding in the merging of the two gods. Regarding Vishṇu, this god already occupies a place in Vedic mythology, although it's not one of such significance as would warrant his exalted position as one of the three forms of divinity. Moreover, while his general nature as a benevolent, friendly being aligns closely with the later Vishṇu, the preserver of the world, the latter showcases many important characteristics that we can't find in his predecessor, likely originating from sectarian worship or an integration with local deities. In one or two cases, as with his names Vāsudeva and Vaikuntha, an effort can be traced to link Vishṇu with Indra, who, as we've noted, was part of the Vedic triad of gods. A notable feature of the earlier Vishṇu is his measuring the world with three strides, which are interpreted to indicate either the three positions of the sun—rising, culminating, and setting—or the triple manifestation of light as fire on earth, lightning in the atmosphere, and the sun in the heavens.

The male nature of the triad was supposed to require to be supplemented by each of the three gods being associated with a female energy (Śakti). Thus Vāch or Sarasvatī, the goddess of speech and learning, came to be regarded as the śakti, or consort of Brahmā; Śrī or Lakshmī, “beauty, fortune,” as that of Vishṇu; and Umā or Pārvatī, the daughter of Himavat, the god of the Himālaya mountain, as that of Śiva. On the other hand, it is not improbable that Pārvatī—who has a variety of other names, such as Kālī (“the black one”), Durgā (“the inaccessible, terrible one”), Māha-devī (“the great goddess”)—enjoyed already a somewhat extensive worship of her own, and that there may thus have been good reason for assigning to her a prominent place in the Brāhmanical system.

The male nature of the triad was meant to be complemented by each of the three gods having a female energy (Śakti). So, Vāch or Sarasvatī, the goddess of speech and learning, was seen as the śakti, or consort of Brahmā; Śrī or Lakshmī, representing “beauty and fortune,” was associated with Vishṇu; and Umā or Pārvatī, the daughter of Himavat, the god of the Himālaya mountain, was paired with Śiva. On the other hand, it’s quite likely that Pārvatī—who has a variety of other names, such as Kālī (“the black one”), Durgā (“the inaccessible, terrible one”), Māha-devī (“the great goddess”)—already had a significant amount of worship of her own, which may have justified her prominent role in the Brāhmanical system.

A compromise was thus effected between the esoteric doctrine of the metaphysician and some of the most prevalent forms of popular worship, resulting in what was henceforth to constitute the orthodox system of belief of the Brāhmanical community. Yet the Vedic pantheon could not be altogether discarded, forming part and parcel, as it did, of that sacred revelation (śruti), which was looked upon as the divine source of all religious and social law (smṛiti, “tradition”), and being, moreover, the foundation of the sacrificial ceremonial on which the priestly authority so largely depended. The existence of the old gods is, therefore, likewise recognized, but recognized in a very different way from that of the triple divinity. For while the triad represents the immediate manifestation of the eternal, infinite soul—while it constitutes, in fact, the Brahmă itself in its active relation to mundane and seemingly material occurrences, the old traditional gods are of this world, are individual spirits or portions of the Brahma like men and other creatures, only higher in degree. To them an intermediate sphere, the heaven of Indra (the svarloka or svarga), is assigned to which man may raise himself by fulfilling the holy ordinances; but they are subject to the same laws of being; they, like men, are liable to be born again in some lower state, and, therefore, like them, yearn for emancipation from the necessity of future individual existence. It is a sacred duty of man to worship these superior beings by invocations and sacrificial observances, as it is to honour the pitṛis (“the fathers”), the spirits of the departed ancestors. The spirits of the dead, on being judged by Yama, the Pluto of Hindū mythology, are supposed to be either passing through a term of enjoyment in a region midway between the earth and the heaven of the gods, or undergoing their measure of punishment in the nether world, situated somewhere in the southern region, before they return to the earth to animate new bodies. In Vedic mythology Yama was considered to have been the first mortal who died, and “espied the way to” the celestial abodes, and in virtue of precedence to have become the ruler of the departed; in some passages, however, he is already regarded as the god of death. Although the pantheistic system allowed only a subordinate rank to the old gods, and the actual religious belief of the people was probably but little affected by their existence, they continued to occupy an important place in the affections of the poet, and were still represented as exercising considerable influence on the destinies of man. The most prominent of them were regarded as the appointed Lokapālas, or guardians of the world; and as such they were made to preside over the four cardinal and (according to some authorities) the intermediate points of the compass. Thus Indra, the chief of the gods, was regarded as the regent of the east; Agni, the fire (ignis), was in the same way associated with the south-east; Yama with the south; Śurya, the sun (Ἢλιος), with the south-west; Varūṇa, originally the representative of the all-embracing heaven (Οὐρανός) or atmosphere, now the god of the ocean, with the west; Vāyu (or Pavana), the wind, with the north-west; Kubera, the god of wealth, with the north; and Soma (or Chaṇdra) with the north-east. In the institutes of Manu the Lokapālas are represented as standing in close relation to the ruling king, who is said to be composed of particles of these his tutelary deities. The retinue of Indra consists chiefly of the Gandharvas (probably etym. connected with κένταυρος), a class of genii, considered in the epics as the celestial musicians; and their wives, the Apsaras, lovely nymphs, who are frequently employed by the gods to make the pious devotee desist from carrying his austere practices to an extent that might render him dangerous to their power. Nārada, an ancient sage (probably a personification of the cloud, the “water-giver”), is considered as the messenger between the gods and men, and as having sprung from the forehead of Brahmā. The interesting office of the god of love is held by Kāmadeva, also called Ananga, the bodyless, because, as the myth relates, having once tried by the power of his mischievous arrow to make Śiva fall in love with Pārvatī, whilst he was engaged in devotional practices, the urchin was reduced to ashes by a glance of the angry god. Two other mythological figures of some importance are considered as sons of Śiva and Pārvatī, viz. Kārttikeya or Skanda, the leader of the heavenly armies, who was supposed to have been fostered by the six Kṛittikās or Pleiades; and Gaṇeśa (“lord of troops”), the elephant-headed god of wisdom, and at the same time the leader of the dii minorum gentium.

A compromise was reached between the complex teachings of the metaphysician and some of the most popular forms of worship, leading to what would become the standard belief system of the Brāhmanical community. However, the Vedic pantheon couldn't be completely discarded, as it was an integral part of that sacred revelation (śruti), which was seen as the divine source of all religious and social law (smṛiti, “tradition”), and also the basis of the sacrificial rituals on which the priestly authority heavily relied. The existence of the old gods is therefore acknowledged, but in a very different manner than that of the three main deities. While the triad represents the direct expression of the eternal, infinite soul—essentially being Brahmā itself in its active relationship with worldly and seemingly material events—the old traditional gods are of this world, seen as individual spirits or aspects of Brahmā, similar to humans and other beings, just at a higher level. They are assigned an intermediate realm, the heaven of Indra (svarloka or svarga), which people can access by following sacred practices; yet they are governed by the same laws of existence. Like humans, they can be reborn in lower states, and thus they also long for liberation from the cycle of individual existence. It is considered a sacred duty for humans to worship these superior beings through prayers and rituals, just as it is to honor the pitṛis (“the fathers”), the spirits of deceased ancestors. The spirits of the dead, after being judged by Yama, the Pluto of Hindu mythology, are thought to either enjoy a period in a realm between earth and the heavenly abode of the gods or face punishment in the underworld, located somewhere in the southern region, before returning to earth to inhabit new bodies. In Vedic mythology, Yama was believed to be the first human to die, and by virtue of being the first, he discovered the path to the celestial realms, becoming the ruler of the departed; however, in some texts, he is already seen as the god of death. Although the pantheistic system gave old gods only a secondary status, and the actual beliefs of the people may have been little influenced by their presence, they still held significance in the hearts of poets and were depicted as having considerable influence over human destinies. The most prominent among them were seen as the appointed Lokapālas, or guardians of the world, and were thus associated with the four cardinal points and, according to some sources, the intermediate directions. For instance, Indra, the chief deity, was viewed as the regent of the east; Agni, the fire (ignis), was linked with the south-east; Yama with the south; Śurya, the sun (Sun), with the south-west; Varūṇa, who originally represented the all-encompassing sky (Sky) or atmosphere, now the god of the ocean, with the west; Vāyu (or Pavana), the wind, with the north-west; Kubera, the god of wealth, with the north; and Soma (or Chaṇdra) with the north-east. In the institutes of Manu, the Lokapālas are depicted as closely linked with the ruling king, who is said to be made up of particles of these protective deities. Indra's retinue mainly consists of the Gandharvas (possibly etymologically related to centaur), a class of celestial beings seen in the epics as divine musicians, alongside their wives, the Apsaras, beautiful nymphs who are often used by the gods to deter pious devotees from their austere practices that might threaten the gods' power. Nārada, an ancient sage (likely a personification of the cloud, the “water-giver”), is regarded as the messenger between gods and humans, believed to have sprung from Brahmā's forehead. The intriguing role of the god of love is filled by Kāmadeva, also known as Ananga, the bodiless one, because, as the myth goes, after trying to make Śiva fall in love with Pārvatī with his mischievous arrow while Śiva was meditating, he was turned to ashes by a glance from the furious god. Two other important mythological figures considered to be the children of Śiva and Pārvatī are Kārttikeya or Skanda, the commander of the heavenly armies, who was thought to have been raised by the six Kṛittikās or Pleiades; and Gaṇeśa (“lord of troops”), the elephant-headed god of wisdom, who also leads the dii minorum gentium.

Orthodox Brāhmanical scholasticism makes the attainment of final emancipation (mukti, moksha) dependent on perfect knowledge of the divine essence. This knowledge can only be obtained by complete abstraction of the mind from external objects and intense meditation on the divinity, which again presupposes the total extinction of all sensual instincts by means of austere practices (tapas). The chosen few who succeed in gaining complete mastery over their senses and a full knowledge of the divine nature become absorbed into the universal soul immediately on the dissolution of the body. Those devotees, on the other hand, who have still a residuum, however slight, of ignorance and worldliness left in them at the time of their death, pass to the world of Brahmā, where their souls, invested with subtile corporeal frames, await their reunion with the Eternal Being.

Orthodox Brahmanical teaching says that achieving final liberation (mukti, moksha) depends on having perfect knowledge of the divine essence. This knowledge can only be gained through completely focusing the mind away from external objects and deeply meditating on the divine, which requires completely eliminating all sensual desires through strict practices (tapas). The few who manage to fully control their senses and understand the divine nature become one with the universal soul right after their body dies. However, those who still have even a tiny bit of ignorance and worldly attachment at the time of their death move on to the world of Brahma, where their souls, with subtle physical forms, wait to reunite with the Eternal Being.

The pantheistic doctrine which thus forms the foundation of the Brahmanical system of belief found its most complete exposition in one of the six orthodox darśanas, or philosophical systems, the Vedānta philosophy. These systems are considered as orthodox inasmuch as they recognize the Veda as the revealed source of religious belief, and never fail to claim the authority of the ancient seers for their own teachings, even though—as in the case of Kapila, the founder of the materialistic Sānkhya system—they involve the denial of so essential a dogmatic point as the existence of a personal creator of the world. So much, indeed, had freedom of speculative thought become a matter of established habit and intellectual necessity, that no attempt seems ever to have been made by the leading theological party to put down such heretical doctrines, so long as the sacred character of the privileges of their caste was not openly called in question. Yet internal dissensions on such cardinal points of belief could not but weaken the authority of the hierarchical 387 body; and as they spread beyond the narrow bounds of the Brāhmanical schools, it wanted but a man of moral and intellectual powers, and untrammelled by class prejudices, to render them fatal to priestly pretensions. Such a man arose in the person of a Śākya prince of Kapilavastu, Gotama, the founder of Buddhism (about the 6th century B.C.). Had it only been for the philosophical tenets of Buddha, they need scarcely have caused, and probably did not cause, any great uneasiness to the orthodox theologians. He did, indeed, go one step beyond Kapila, by altogether denying the existence of the soul as a substance, and admitting only certain intellectual faculties as attributes of the body, perishable with it. Yet the conception which Buddha substituted for the transmigratory soul, viz. that of karma (“work”), as the sum total of the individual’s good and bad actions, being the determinative element of the form of his future existence, might have been treated like any other speculative theory, but for the practical conclusions he drew from it. Buddha recognized the institution of caste, and accounted for the social inequalities attendant thereon as being the effects of karma in former existences. But, on the other hand, he altogether denied the revealed character of the Veda and the efficacy of the Brāhmanical ceremonies deduced from it, and rejected the claims of the sacerdotal class to be the repositaries and divinely appointed teachers of sacred knowledge. That Buddha never questioned the truth of the Brāhmanical theory of transmigration shows that this early product of speculative thought had become firmly rooted in the Hindū mind as a tenet of belief amounting to moral conviction. To the Hindū philosopher this doctrine seemed alone to account satisfactorily for the apparent essential similarity of the vital element in all animate beings, no less than for what elsewhere has led honest and logical thinkers to the stern dogma of predestination. The belief in eternal bliss or punishment, as the just recompense of man’s actions during this brief term of human life, which their less reflective forefathers had at one time held, appeared to them to involve a moral impossibility. The equality of all men, which Buddha preached with regard to the final goal, the nirvāna, or extinction of karma and thereby of all future existence and pain, and that goal to be reached, not by the performance of penance and sacrificial worship, but by practising virtue, could not fail to be acceptable to many people. It would be out of place here to dwell on the rapid progress and internal development of the new doctrine. Suffice it to say that, owing no doubt greatly to the sympathizing patronage of ruling princes, Buddhism appears to have been the state religion in most parts of India during the early centuries of our era. To what extent it became the actual creed of the body of the people it will probably be impossible ever to ascertain. One of the chief effects it produced on the worship of the old gods was the rapid decline of the authority of the orthodox Brāhmanical dogma, and a considerable development of sectarianism. (See Hinduism.)

The pantheistic belief that underpins the Brahmanical system of belief found its most thorough explanation in one of the six orthodox darśanas, or philosophical systems, specifically the Vedānta philosophy. These systems are considered orthodox because they acknowledge the Veda as the revealed source of religious belief and consistently claim the authority of ancient seers for their teachings, even though — as seen in the case of Kapila, the founder of the materialistic Sānkhya system — they may deny a fundamental dogma such as the existence of a personal creator. Freedom of thought had become so ingrained and necessary that the leading theological group never seemed to try to suppress such heretical views, as long as the sacred privileges of their caste weren’t openly challenged. However, internal disputes over important beliefs inevitably weakened the authority of the hierarchical body; as these views spread beyond the limits of Brahmanical schools, it just took one person with moral and intellectual strength, free from class biases, to challenge priestly claims. This person emerged as Gotama, the Śākya prince of Kapilavastu, who founded Buddhism around the 6th century BCE. Even if only Buddha's philosophical beliefs were considered, they probably didn’t trigger much concern among orthodox theologians. He did go a step further than Kapila by completely denying the existence of the soul as a substance and only acknowledging certain intellectual abilities as attributes of the body, which perish with it. However, Buddha introduced the concept of karma (“work”), representing the totality of a person’s good and bad actions as the deciding factor for their future life, which could have been treated like any other speculative idea, if not for the practical conclusions he drew. Buddha accepted the caste system and explained social inequalities as consequences of karma from previous lives. Yet, he entirely denied the divine nature of the Veda and the effectiveness of Brahmanical rituals derived from it, rejecting the claims of the priestly class as the appointed guardians and teachers of sacred knowledge. Buddha never questioned the validity of the Brahmanical belief in reincarnation, indicating that this early speculative thought had firmly established itself in Hindu belief as a moral conviction. To Hindu philosophers, this doctrine seemed to satisfactorily explain the apparent fundamental similarity of the vital element in all living beings, which has also led honest and logical thinkers in other traditions to the strict doctrine of predestination. The belief in eternal reward or punishment, as fair compensation for human actions within the limited span of life, which earlier ancestors had once held, appeared to them to present a moral impossibility. The equality of all people, which Buddha championed concerning the ultimate goal, nirvāna, or the cessation of karma and, consequently, all future existence and suffering, and that this goal could be achieved not through penance and sacrificial worship but by living virtuously, resonated with many. It’s not the right place to discuss the rapid growth and inner development of this new doctrine. It's enough to note that, largely due to the supportive backing from ruling princes, Buddhism seems to have become the state religion in many regions of India during the early centuries of our era. It’s likely impossible to determine how much it truly became the belief of the general populace. One major effect it had on traditional worship was the swift decline of the authority of orthodox Brahmanical beliefs and a significant increase in sectarianism. (See Hinduism.)

See H.H. Wilson, Essays on the Religion of the Hindus; J. Muir, Original Sanskrit Texts; M. Müller, History of Ancient Sanskrit Literature; C. Lassen, Indische Alterthumskunde; Elphinstone, History of India, ed. by E.B. Cowell.

See H.H. Wilson, Essays on the Religion of the Hindus; J. Muir, Original Sanskrit Texts; M. Müller, History of Ancient Sanskrit Literature; C. Lassen, Indische Alterthumskunde; Elphinstone, History of India, ed. by E.B. Cowell.

(J. E.)

BRAHMAPUTRA, a great river of India, with a total length of 1800 m. Its main source is in a great glacier-mass of the northernmost chain of the Himalayas, called Kubigangri, about 82° N., and receives various tributaries including one formerly regarded as the true source from the pass of Mariam La (15,500 ft.), which separates its basin from the eastern affluents of the Mansarowar lakes, at least 100 m. south-east of those of the Indus. It flows in a south-easterly direction for 170 m., and then adheres closely to a nearly easterly course for 500 m. more, being at the end of that distance in 29° 10′ N. lat. It then bends north-east for 150 m. before finally shaping itself southwards towards the plains of Assam. Roughly speaking, the river may be said so far to run parallel to the main chain of the Himalaya at a distance of 100 m. therefrom. Its early beginnings take their rise amidst a mighty mass of glaciers which cover the northern slopes of the watershed, separating them from the sources of the Gogra on the south; and there is evidence that two of its great southern tributaries, the Shorta Tsanpo (which joins about 150 m. from its source), and the Nyang Chu (the river of Shigatse and Gyantse), are both also of glacial origin. From the north it receives five great tributaries, namely, the Chu Nago, the Chachu Tsanpo and the Charta Tsanpo (all within the first 200 m. of its course), and the Raka Tsanpo and Kyi-chu (or river of Lhasa) below. The Chachu and the Charta are large clear streams, evidently draining from the great central lake district. Both of them measure more than 100 yds. in width at the point of junction, and they are clearly non-glacial. The Raka Tsanpo is a lateral affluent, flowing for 200 m. parallel to the main river course and some 20 to 30 m. north of it, draining the southern slopes of a high snowy range. It is an important feature as affording foothold for the Janglam (the great high road of southern Tibet connecting Ladakh with China), which is denied by the actual valley of the Brahmaputra. The great river itself is known in Tibet by many names, being generally called the Nari Chu, Maghang Tsanpo or Yaro Tsanpo, above Lhasa; the word “tsanpo” (tsang-po) meaning (according to Waddell) the “pure one,” and applying to all great rivers. Fifty miles from its source the river and the Janglam route touch each other, and from that point past Tadum (the first important place on its banks) for another 130 m., the road follows more or less closely the left bank of the river. Then it diverges northwards into the lateral valley of the Raka, until the Raka joins the Brahmaputra below Janglache. The upper reaches are nowhere fordable between Tadum and Lhasa, but there is a ferry at Likche (opposite Tadum on the southern bank), where wooden boats covered with hide effect the necessary connexion between the two banks and ensure the passage of the Nepal trade. From Janglache (13,800 ft.) to Shigatse the river is navigable, the channel being open and wide and the course straight. This is probably the most elevated system of navigation in the world. From Shigatse, which stands near the mouth of the Nyang Chu, to the Kyi-chu, or Lhasa river, there is no direct route, the river being unnavigable below Shigatse. The Janglam takes a circuitous course southwards to Gyantse and the Yamdok Cho before dropping again over the Khambala pass to the ferry at Khamba barje near Chushul. Thence the valley of the Kyi-chu (itself navigable for small boats for about 30 m.) leads to Lhasa northwards. At Chushul there is an iron chain-and-rope suspension bridge over the deepest part of the river, but it does not completely span the river, and it is too insecure for use. The remains of a similar bridge exist at Janglache; but there are no wooden or twig suspension bridges over the Tsanpo. At Tadum the river is about one half as wide again as the Ganges at Hardwar in December, i.e. about 250 to 300 yds. At Shigatse it flows in a wide extended bed with many channels, but contracts again at Chushul, where it is no wider than it is at Janglache, i.e. from 600 to 700 yds. At Chushul (below the Kyi-chu) the discharge of the river is computed to be about 35,000 cub. ft. per second, or seven times that of the Ganges at Hardwar.

BRAHMAPUTRA, is a major river in India, stretching a total of 1800 miles. It begins in a massive glacier of the northernmost Himalayas, known as Kubigangri, around 82° N, and gathers several tributaries, including one that was once thought to be the true source from the Mariam La pass (15,500 ft.), which separates its basin from the eastern inflows of the Mansarowar lakes, located at least 100 miles southeast of those of the Indus. The river flows southeast for 170 miles, then shifts to a nearly eastward direction for another 500 miles, reaching 29° 10′ N latitude. After that, it curves northeast for 150 miles before finally turning south toward the plains of Assam. Broadly, the river runs parallel to the main Himalayan range, about 100 miles away. Its origins lie within a vast expanse of glaciers covering the northern slopes of the watershed that separates it from the Gogra sources in the south; evidence suggests that two significant southern tributaries, the Shorta Tsanpo (joining about 150 miles from its source) and the Nyang Chu (the river of Shigatse and Gyantse), also have glacial origins. From the north, it receives five major tributaries: the Chu Nago, the Chachu Tsanpo, and the Charta Tsanpo (all within the first 200 miles of its course), and the Raka Tsanpo and Kyi-chu (or Lhasa river) further down. The Chachu and Charta are large, clear streams draining from the great central lake district. Both are more than 100 yards wide where they meet, and they are clearly not glacial. The Raka Tsanpo is a side stream, flowing parallel to the main river course for 200 miles, some 20 to 30 miles to the north, draining the southern slopes of a high snowy range. This tributary plays a crucial role, providing a foothold for the Janglam (the major highway of southern Tibet linking Ladakh with China), which is prevented by the actual valley of the Brahmaputra. The main river is known by various names in Tibet, commonly referred to as the Nari Chu, Maghang Tsanpo, or Yaro Tsanpo above Lhasa; the term “tsanpo” (tsang-po) translates (according to Waddell) to “the pure one,” which is used for all major rivers. Fifty miles from its source, the river and the Janglam route meet, and from that point past Tadum (the first significant settlement along its banks) for another 130 miles, the road generally follows the left bank of the river. Then it veers north into the valley of the Raka, until the Raka joins the Brahmaputra below Janglache. The upper stretches of the river are not crossable between Tadum and Lhasa, but there is a ferry at Likche (opposite Tadum on the southern bank), where wooden boats covered in hide provide the necessary connection between the two banks and facilitate trade with Nepal. From Janglache (13,800 ft.) to Shigatse, the river is navigable, with the channel being wide and open and the course straight. This is likely the highest navigable river system in the world. From Shigatse, which is located near the mouth of the Nyang Chu, to the Kyi-chu, or Lhasa river, there’s no direct route as the river is not navigable below Shigatse. The Janglam takes a winding path southwards to Gyantse and the Yamdok Cho before descending over the Khambala pass to the ferry at Khamba barje near Chushul. From there, the Kyi-chu valley (navigable for small boats for about 30 miles) leads north to Lhasa. At Chushul, there’s an iron chain-and-rope suspension bridge over the river’s deepest part, but it doesn’t span the whole river and is too unstable for use. The remains of a similar bridge can be found at Janglache; however, there are no wooden or twig suspension bridges over the Tsanpo. At Tadum, the river is about one and a half times wider than the Ganges at Hardwar in December, roughly 250 to 300 yards. At Shigatse, it flows in a wide, expansive bed with many channels but narrows again at Chushul, where it’s no wider than at Janglache, about 600 to 700 yards. At Chushul (below the Kyi-chu), the river’s discharge is estimated to be about 35,000 cubic feet per second, which is seven times that of the Ganges at Hardwar.

For about 250 m. below Kyi-chu to a point about 20 m. below the great southerly bend (in 94° E. long.) the course of the Brahmaputra has been traced by native surveyors. Then it is lost amidst the jungle-covered hills of the wild Mishmi and Abor tribes to the east of Bhutan for another 100 m., until it is again found as the Dihong emerging into the plains of Assam. About the intervening reaches of the river very little is known except that it drops through 7000 ft. of altitude, and that in one place, at least, there exist some very remarkable falls. These are placed in 29° 40′ N. lat., between Kongbu and Pema-Koi. Here the river runs in a narrow precipitous defile along which no path is practicable. The falls can only be approached from below, where a monastery has been erected, the resort of countless pilgrims. Their height is estimated at 70 ft., and by Tibetan report the hills around are enveloped in perpetual mist, and the Sangdong (the “lion’s face”), over which the waters rush, is demon-haunted and full of mystic import. Up to comparatively recent years it was matter for controversy whether the Tsanpo formed the upper reaches of the Dihong or of the Irrawaddy. From the north-eastern extremity of Assam 388 where, near Sadya, the Lohit, the Dibong and the Dihong unite to form the wide placid Brahmaputra of the plains—one of the grandest rivers of the world—its south-westerly course to the Bay of Bengal is sufficiently well known. It still retains the proud distinction of being unbridged, and still the River Flotilla Company appoints its steamers at regular intervals to visit all the chief ports on its banks as far as Dibrugarh. Here, however, a new feature has been introduced in the local railway, which extends for some 80 m. to Sadya, with a branch to the Buri Dihing river at the foot of the Patkoi range. The Patkoi border the plains of Upper Assam to the south-east, and across these hills lies the most reasonable probability of railway extension to Burma.

For about 250 meters below Kyi-chu to a point about 20 meters below the significant southerly bend (at 94° E. longitude), native surveyors have mapped the course of the Brahmaputra. After that, it becomes lost among the jungle-covered hills of the wild Mishmi and Abor tribes east of Bhutan for another 100 meters, until it reappears as the Dihong emerging into the plains of Assam. Very little is known about the sections of the river in between, except that it drops through 7,000 feet of altitude, and that in at least one spot, there are some remarkable waterfalls. These are located at 29° 40′ N latitude, between Kongbu and Pema-Koi. Here, the river runs through a narrow, steep gorge where no path is passable. The falls can only be accessed from below, where a monastery has been built, attracting countless pilgrims. Their height is estimated to be 70 feet, and according to Tibetan reports, the surrounding hills are shrouded in perpetual mist, with the Sangdong (the “lion’s face”), over which the waters rush, said to be haunted by demons and filled with mystical significance. Until relatively recently, there was debate over whether the Tsanpo formed the upper reaches of the Dihong or the Irrawaddy. From the northeastern edge of Assam388, where, near Sadya, the Lohit, Dibong, and Dihong converge to create the wide, tranquil Brahmaputra of the plains—one of the grandest rivers in the world—its southwesterly course to the Bay of Bengal is fairly well known. It still proudly holds the distinction of being unbridged, and the River Flotilla Company continues to send its steamers at regular intervals to visit all the major ports along its banks as far as Dibrugarh. However, a new development has been introduced with the local railway, extending about 80 miles to Sadya, with a branch to the Buri Dihing river at the base of the Patkoi range. The Patkoi hills border the plains of Upper Assam to the southeast, and across these hills lies a reasonable possibility for extending the railway to Burma.

The following are the “lowest level” discharges of the principal affluents of the Brahmaputra in Upper Assam, estimated in cubic feet per second:—

The following are the “lowest level” discharges of the main tributaries of the Brahmaputra in Upper Assam, estimated in cubic feet per second:—

Lohit river, 9 m. above Sadya 38,800
Dibong, 1 m. above junction with Dihong 27,200
Dihong    ”     ”     Dibong 55,400
Subansiri 16,900

The basins of the Dibong and Subansiri are as yet very imperfectly known. That of the Lohit has been fairly well explored. Near Goalpara the discharge of the river in January 1828 was computed to be 140,000 cub. ft., or nearly double that of the Ganges. The length of the river is 700 m. to the Dihong junction, and about 1000 in Tibet and eastern Bhutan, above the Dihong. The Brahmaputra, therefore, exceeds the Ganges in length by about 400 m. The bed of the great river maintains a fairly constant position between its extreme banks, but the channels within that bed are so constantly shifting as to require close supervision on the part of the navigation authorities; so much detritus is carried down as to form a perpetually changing series of obstructions to steamer traffic.

The basins of the Dibong and Subansiri are still not very well understood. The Lohit basin has been fairly well explored. Near Goalpara, the river's flow was measured to be 140,000 cubic feet in January 1828, which is almost twice that of the Ganges. The river is 700 meters long to the Dihong junction and about 1000 meters in Tibet and eastern Bhutan, upstream of the Dihong. So, the Brahmaputra is about 400 meters longer than the Ganges. The riverbed stays mostly in a fixed position between its banks, but the channels within the riverbed are constantly changing, requiring close monitoring from navigation authorities. A lot of debris is carried down, creating a continually shifting series of obstacles for steamer traffic.

An enormous development of agricultural resources has taken place within the Brahmaputra basin of late years, chiefly in the direction of tea cultivation, as well as in the production of jute and silk. Gold is found in the sands of all its upper tributaries, and coal and petroleum are amongst the chief mineral products which have been brought into economic prominence. During the rains the Brahmaputra floods hundreds of square miles of country, reaching a height of 30 to 40 ft. above its usual level. This supersedes artificial irrigation, and the plains so watered yield abundantly in rice, jute and mustard.

An enormous development of agricultural resources has occurred in the Brahmaputra basin in recent years, mainly focusing on tea cultivation, along with the production of jute and silk. Gold is found in the sands of all its upper tributaries, and coal and petroleum are among the main mineral products that have gained economic importance. During the rainy season, the Brahmaputra floods hundreds of square miles, reaching heights of 30 to 40 feet above its normal level. This replaces artificial irrigation, and the plains that receive this flooding produce abundant yields of rice, jute, and mustard.

See Reports of the native explorers of the Indian Survey, edited by Montgomery and Harman; Imperial Gazetteer of India (1908); Sir T.H. Holdich, India (“Regions of the World” series, 1903); Ryder, Geographical Journal, 1905; Rawlings, The Great Plateau (1906).

See Reports from the native explorers of the Indian Survey, edited by Montgomery and Harman; Imperial Gazetteer of India (1908); Sir T.H. Holdich, India (“Regions of the World” series, 1903); Ryder, Geographical Journal, 1905; Rawlings, The Great Plateau (1906).

(T. H. H.*)

BRAHMA SAMAJ, a religious association in India which owes its origin to (Raja) Ram Mohan Roy, who began teaching and writing in Calcutta soon after 1800. The name means literally the “Church of the One God,” and the word Samaj, like the word Church, bears both a local and a universal, or an individual and a collective meaning. Impressed with the perversions and corruptions of popular Hinduism, Ram Mohan Roy investigated the Hindu Shastras, the Koran and the Bible, repudiated the polytheistic worship of the Shastras as false, and inculcated the reformed principles of monotheism as found in the ancient Upanishads of the Vedas. In 1816 he established a society, consisting only of Hindus, in which texts from the Vedas were recited and theistic hymns chanted. This, however, soon died out through the opposition it received from the Hindu community. In 1830 he organized the society known as the Brahma Samaj.

BRAHMA SAMAJ, is a religious group in India that originated from (Raja) Ram Mohan Roy, who began teaching and writing in Calcutta soon after 1800. The name literally means “Church of the One God,” and the term Samaj carries both a local and a universal, or an individual and a collective meaning, similar to the word Church. Disturbed by the flaws and corruptions in popular Hinduism, Ram Mohan Roy explored the Hindu Shastras, the Koran, and the Bible, rejected the polytheistic worship of the Shastras as incorrect, and promoted the reformed principles of monotheism found in the ancient Upanishads of the Vedas. In 1816, he created a society made up only of Hindus, where texts from the Vedas were recited and theistic hymns were sung. However, this initiative quickly faded due to opposition from the Hindu community. In 1830, he established the society known as the Brahma Samaj.

The following extract from the trust-deed of the building dedicated to it will show the religious belief and the purposes of its founder. The building was intended to be “a place of public meeting for all sorts and descriptions of people, without distinction, who shall behave and conduct themselves in an orderly, sober, religious and devout manner, for the worship and adoration of the eternal, unsearchable and immutable Being, who is the author and preserver of the universe, but not under and by any other name, designation or title, peculiarly used for and applied to any particular being or beings by any man or set of men whatsoever; and that no graven image, statue or sculpture, carving, painting, picture, portrait or the likeness of anything shall be admitted within the said messuage, building, land, tenements, hereditament and premises; and that no sacrifice, offering or oblation of any kind or thing shall ever be permitted therein; and that no animal or living creature shall within or on the said messuage, &c., be deprived of life either for religious purposes or food, and that no eating or drinking (except such as shall be necessary by any accident for the preservation of life), feasting or rioting be permitted therein or thereon; and that in conducting the said worship or adoration, no object, animate or inanimate, that has been or is or shall hereafter become or be recognized as an object of worship by any man or set of men, shall be reviled or slightingly or contemptuously spoken of or alluded to, either in preaching or in the hymns or other mode of worship that may be delivered or used in the said messuage or building; and that no sermon, preaching, discourse, prayer or hymns be delivered, made or used in such worship, but such as have a tendency to the contemplation of the Author and Preserver of the universe or to the promotion of charity, morality, piety, benevolence, virtue and the strengthening of the bonds of union between men of all religious persuasions and creeds.”

The following extract from the trust deed of the building dedicated to it shows the religious beliefs and purposes of its founder. The building was meant to be “a space for public gatherings for all kinds of people, without distinction, as long as they behave and conduct themselves in an orderly, sober, religious, and devout manner, for the worship and reverence of the eternal, unsearchable, and unchanging Being, who is the creator and guardian of the universe, but not under any other name, title, or designation specifically associated with any particular being or beings by any person or group whatsoever; and that no graven image, statue, sculpture, carving, painting, picture, portrait, or likeness of anything shall be allowed within the said messuage, building, land, tenements, hereditaments, and premises; and that no sacrifices, offerings, or gifts of any kind shall ever be allowed there; and that no animal or living creature shall be killed within or on the said messuage, etc., either for religious purposes or food, and that no eating or drinking (except what is necessary due to an emergency for the preservation of life), feasting, or riotous behavior shall be allowed there or on it; and that in conducting the said worship or reverence, no object, whether alive or inanimate, that has ever been or is or will be recognized as an object of worship by any person or group, shall be mocked or spoken of disrespectfully, either in preaching or in the hymns or other forms of worship used in the said messuage or building; and that no sermon, preaching, discourse, prayer, or hymns shall be delivered, made, or used in such worship, except those that encourage contemplation of the Author and Guardian of the universe or promote charity, morality, piety, kindness, virtue, and the strengthening of the ties of unity among people of all faiths and beliefs.”

The new faith at this period held to the Vedas as its basis. Ram Mohan Roy soon after left India for England, and took up his residence in Bristol, where he died in 1835. The Brahma Samaj maintained a bare existence till 1841, when Babu Debendra Nath Tagore, a member of a famous and wealthy Calcutta family, devoted himself to it. He gave a printing-press to the Samaj, and established a monthly journal called the Tattwabodhinī Patrikā, to which the Bengali language now owes much for its strength and elegance. About 1850 some of the followers of the new religion discovered that the greater part of the Vedas is polytheistic, and a schism took place,—the advanced party holding that nature and intuition form the basis of faith. Between 1847 and 1858 branch societies were formed in different parts of India, especially in Bengal, and the new society made rapid progress, for which it was largely indebted to the spread of English education and the work of Christian missionaries. In fact the whole Samaj movement is as distinct a product of the contest of Hinduism with Christianity in the 19th century, as the Panth movement was of its contest with Islam 300 years earlier.

The new faith during this time relied on the Vedas as its foundation. Soon after, Ram Mohan Roy left India for England and settled in Bristol, where he passed away in 1835. The Brahma Samaj barely survived until 1841, when Babu Debendra Nath Tagore, a member of a well-known and wealthy family in Calcutta, committed himself to it. He provided a printing press for the Samaj and started a monthly journal called the Tattwabodhinī Patrikā, which has greatly contributed to the strength and elegance of the Bengali language. Around 1850, some followers of the new faith realized that most of the Vedas promote polytheism, leading to a split; the progressive faction believed that nature and intuition should be the foundation of faith. Between 1847 and 1858, branch societies were established in various regions of India, especially in Bengal, and the new society advanced quickly, largely due to the rise of English education and the efforts of Christian missionaries. In fact, the entire Samaj movement is as distinctly a result of Hinduism's conflict with Christianity in the 19th century as the Panth movement was a result of its struggle with Islam 300 years earlier.

The Brahma creed was definitively formulated as follows:—(1) The book of nature and intuition supplies the basis of religious faith. (2) Although the Brahmas do not consider any book written by man the basis of their religion, yet they do accept with respect and pleasure any religious truth contained in any book. (3) The Brahmas believe that the religious condition of man is progressive, like the other departments of his condition in this world. (4) They believe that the fundamental doctrines of their religion are also the basis of every true religion. (5) They believe in the existence of one Supreme God—a God endowed with a distinct personality, moral attributes worthy of His nature and an intelligence befitting the Governor of the universe, and they worship Him alone. They do not believe in any of His incarnations. (6) They believe in the immortality and progressive state of the soul, and declare that there is a state of conscious existence succeeding life in this world and supplementary to it as respects the action of the universal moral government. (7) They believe that repentance is the only way to salvation. They do not recognize any other mode of reconcilement to the offended but loving Father. (8) They pray for spiritual welfare and believe in the efficacy of such prayers. (9) They believe in the providential care of the divine Father. (10) They avow that love towards Him and the performances of the works which He loves, constitute His worship. (11) They recognize the necessity of public worship, but do not believe that communion with the Father depends upon meeting in any fixed place at any fixed time. They maintain that they can adore Him at any time and at any place, provided that the time and the place are 389 calculated to compose and direct the mind towards Him. (12) They do not believe in pilgrimages and declare that holiness can only be attained by elevating and purifying the mind. (13) They put no faith in rites or ceremonies, nor do they believe in penances as instrumental in obtaining the grace of God. They declare that moral righteousness, the gaining of wisdom, divine contemplation, charity and the cultivation of devotional feelings are their rites and ceremonies. They further say, govern and regulate your feelings, discharge your duties to God and to man, and you will gain everlasting blessedness; purify your heart, cultivate devotional feelings and you will see Him who is unseen. (14) Theoretically there is no distinction of caste among the Brahmas. They declare that we are all the children of God, and therefore must consider ourselves as brothers and sisters.

The Brahma beliefs are clearly outlined as follows:—(1) The natural world and personal intuition form the foundation of religious faith. (2) While the Brahmas do not see any human-written book as the basis for their religion, they do respect and appreciate any religious truth found in any book. (3) The Brahmas believe that humanity's spiritual development is progressive, just like other aspects of life in this world. (4) They believe that the core principles of their faith are also fundamental to every genuine religion. (5) They believe in one Supreme God—a God with a unique personality, moral qualities fitting of His nature, and an intelligence suitable for the Governor of the universe, whom they worship alone. They do not accept any of His incarnations. (6) They believe in the immortality and ongoing evolution of the soul, asserting that there is a conscious existence after life in this world, which complements it in terms of the actions of universal moral governance. (7) They believe that repentance is the only path to salvation and do not acknowledge any other way to reconcile with the loving Father. (8) They pray for spiritual well-being and believe in the efficacy of such prayers. (9) They trust in the providential care of the divine Father. (10) They affirm that love for Him and performing the actions He cherishes constitute worship. (11) They recognize the importance of communal worship but do not think that connecting with the Father hinges on gathering at a specific place or time. They argue that they can worship Him anytime and anywhere, as long as the time and place help focus and guide the mind toward Him. (12) They reject the idea of pilgrimages, stating that holiness is achieved through elevating and purifying the mind. (13) They do not believe in rituals or ceremonies, nor do they see penance as a means to gain God's grace. They assert that moral integrity, acquiring wisdom, divine meditation, charity, and nurturing devotional feelings are their rituals and ceremonies. They also suggest that if you manage and govern your feelings and fulfill your duties to God and to others, you will attain eternal happiness; purify your heart, foster devotional feelings, and you will perceive the unseen. (14) In theory, there is no caste distinction among the Brahmas. They proclaim that we are all children of God and, therefore, must regard each other as brothers and sisters.

For long the Brahmas did not attempt any social reforms. But about 1865 the younger section, headed by Babu Keshub Chunder Sen, who joined the Samaj in 1857, tried to carry their religious theories into practice by demanding the abandonment of the external signs of caste distinction. This, however, the older members opposed, declaring such innovations to be premature. A schism resulted, Keshub Chunder Sen and his followers founding the Progressive Samaj, while the conservative stock remained as the Adi (i.e. original) Samaj, their aim being to “fulfil” rather than to abrogate the old religion. The vitality of the movement, however, had left it, and its inconsistencies, combined with the lack of strong leadership, landed it in a position scarcely distinguishable from orthodox Hinduism. Debendra Nath Tagore sought refuge from the difficulty by becoming an ascetic. The “Brahma Samaj of India,” as Chunder Sen’s party styled itself, made considerable progress extensively and intensively until 1878, when a number of the most prominent adherents, led by Anand Mohan Bose, took umbrage at Chunder Sen’s despotic rule and at his disregard of the society’s regulations concerning child marriage. This led to the formation of the Sadharana (Universal) Brahma Samaj, now the most popular and progressive of the three sections of the movement and conspicuous for its work in the cause of literary culture, social reform and female education in India. But even when we add all sections of the Brahma Samaj together, the total number of adherents is only about 4000, mostly found in Calcutta and its neighbourhood. A small community (about 130) in Bombay, known as the Prarthna (Prayer) Samaj, was founded in 1867 through Keshub Chunder’s influence; they have a similar creed to that of the Brahma Samaj, but have broken less decisively with orthodox and ceremonial Hinduism.

For a long time, the Brahmas didn’t pursue any social reforms. However, around 1865, a younger group led by Babu Keshub Chunder Sen, who joined the Samaj in 1857, attempted to put their religious theories into action by calling for the end of the visible signs of caste distinction. The older members opposed this, arguing that such changes were too early. This disagreement led to a split, with Keshub Chunder Sen and his followers establishing the Progressive Samaj, while the conservative group remained as the Adi (original) Samaj, aiming to “fulfill” rather than abolish the old religion. However, the movement lost its vitality, and its inconsistencies, combined with the absence of strong leadership, left it in a position nearly indistinguishable from orthodox Hinduism. Debendra Nath Tagore sought escape from this challenge by becoming an ascetic. The “Brahma Samaj of India,” as Chunder Sen’s group called itself, made significant progress both broadly and deeply until 1878, when several leading members, led by Anand Mohan Bose, became upset with Chunder Sen’s autocratic leadership and his indifference to the society’s rules regarding child marriage. This dissatisfaction resulted in the creation of the Sadharana (Universal) Brahma Samaj, currently the most popular and progressive of the three factions of the movement, known for its efforts in promoting literary culture, social reform, and female education in India. Yet, even when we combine all factions of the Brahma Samaj, the total membership is only about 4,000, mostly located in Calcutta and its surroundings. A small community (about 130) in Bombay, called the Prarthna (Prayer) Samaj, was founded in 1867 under Keshub Chunder’s influence; they share a similar belief system to that of the Brahma Samaj but have not separated as decisively from orthodox and ceremonial Hinduism.

See the articles on Arya, Samaj, Keshub Chunder Sen, Ram Mohan Roy. Also John Robson, Hinduism and Christianity; and the Theistic Quarterly Review (the organ of the Society since 1880).

See the articles on Arya, Samaj, Keshub Chunder Sen, Ram Mohan Roy. Also, check out John Robson's Hinduism and Christianity; and the Theistic Quarterly Review (the organization’s publication since 1880).


BRAHMS, JOHANNES (1833-1897), German composer, was born in Hamburg on the 7th of May 1833. He was the son of a double-bass player in the Hamburg city theatre and received his first musical instruction from his father. After some lessons from O. Cossel, he went to Cossel’s master, Eduard Marxsen of Altona, whose experience and artistic taste directed the young man’s genius into the highest paths. A couple of public appearances as a pianist were hardly an interruption to the course of his musical studies, and these were continued nearly up to the time when Brahms accepted an engagement as accompanist to the Hungarian violinist, Remenyi, for a concert tour in 1853. At Göttingen there occurred a famous contretemps which had a most important though indirect influence on the whole after-life of the young player. A piano on which he was to play the “Kreutzer” sonata of Beethoven with Remenyi turned out to be a semitone below the required pitch; and Brahms played the part by heart, transposing it from A to B flat, in such a way that the great violinist, Joachim, who was present and discerned what the feat implied, introduced himself to Brahms, and laid the foundation of a life-long friendship. Joachim gave him introductions to Liszt at Weimar and to Schumann at Düsseldorf; the former hailed him for a time as a member of the advanced party in music, on the strength of his E flat minor scherzo, but the misapprehension was not of long continuance. The introduction to Schumann impelled that master, now drawing near the tragic close of his career, to write the famous article “Neue Bahnen,” in which the young Brahms was proclaimed to be the great composer of the future, “he who was to come.” The critical insight in Schumann’s article is all the more surprising when it is remembered how small was the list of Brahms’s works at the time. A string quartet, the first pianoforte sonata, the scherzo already mentioned, and the earliest group of songs, containing the dramatic “Liebestreu,” are the works which drew forth the warm commendations of Schumann. In December 1853 Brahms gave a concert at Leipzig, as a result of which the firms of Breitkopf & Haertel and of Senff undertook to publish his compositions. In 1854 he was given the post of choir-director and music-master to the prince of Lippe-Detmold, but he resigned it after a few years, going first to Hamburg, and then to Zürich, where he enjoyed the friendship and artistic counsel of Theodor Kirchner. The unfavourable verdict of the Leipzig Gewandhaus audience upon his pianoforte concerto in D minor op. 15, and several remarkably successful appearances in Vienna, where he was appointed director of Ihe Singakademie in 1863, were the most important external events of Brahms’s life, but again he gave up the conductorship after a few months of valuable work, and for about three years had no fixed place of abode. Concert tours with Joachim or Stockhausen were undertaken, and it was not until 1867 that he returned to Vienna, or till 1872 that he chose it definitely as his home, his longest absence from the Austrian capital being between 1874 and 1878, when he lived near Heidelberg. From 1871 to 1874 he conducted the concerts of the “Gesellschaft der Musikfreunde,” but after the later date he occupied no official position of any kind. With the exception of journeys to Italy in the spring, or to Switzerland in the summer, he rarely left Vienna. He refused to come to England to take the honorary degree of Mus.D. offered by the university of Cambridge; the university of Breslau made him Ph.D. in 1881; in 1886 he was created a knight of the Prussian order Pour le mérite, and in 1889 was presented with the freedom of his native city. He died in Vienna on the 3rd of April 1897.

BRAHMS, JOHANNES (1833-1897), a German composer, was born in Hamburg on May 7, 1833. He was the son of a double-bass player at the Hamburg city theater and received his first musical lessons from his father. After some instruction from O. Cossel, he studied under Cossel's master, Eduard Marxsen of Altona, whose experience and artistic taste guided the young man's talent toward greatness. A few public performances as a pianist didn't significantly disrupt his musical education, which continued almost until Brahms took a job as an accompanist for the Hungarian violinist Remenyi during a concert tour in 1853. In Göttingen, a famous incident occurred that had a significant, albeit indirect, impact on the young musician's future. The piano he was supposed to play for the “Kreutzer” sonata by Beethoven with Remenyi was a semitone below the required pitch; Brahms played the piece from memory, transposing it from A to B flat, impressing the renowned violinist Joachim, who was present and recognized the skill of the feat. This led to Joachim introducing himself to Brahms, forming the basis of a lifelong friendship. Joachim connected him with Liszt in Weimar and Schumann in Düsseldorf. Liszt briefly regarded him as part of the progressive music movement due to his E flat minor scherzo, but that misunderstanding didn’t last long. The introduction to Schumann prompted the master, nearing the tragic end of his career, to write the famous article “Neue Bahnen,” where he proclaimed young Brahms as the great composer of the future, “he who was to come.” The insight in Schumann's article is even more remarkable considering Brahms had a very limited list of works at that time. His string quartet, the first piano sonata, the aforementioned scherzo, and the earliest group of songs, including the dramatic “Liebestreu,” received praise from Schumann. In December 1853, Brahms held a concert in Leipzig, which led to the publishing firms Breitkopf & Haertel and Senff taking on his compositions. In 1854, he became the choir director and music master for the prince of Lippe-Detmold but left after a few years, first going to Hamburg and then to Zürich, where he enjoyed friendship and artistic guidance from Theodor Kirchner. The negative reaction from the Leipzig Gewandhaus audience to his piano concerto in D minor op. 15, along with several successful performances in Vienna—where he was appointed director of the Singakademie in 1863—were the most significant external events in Brahms's life. However, he resigned from that position after a few months of valuable work and spent about three years without a permanent residence. He undertook concert tours with Joachim or Stockhausen and didn’t return to Vienna until 1867, making it his definitive home by 1872; his longest absence from the Austrian capital was from 1874 to 1878 when he lived near Heidelberg. From 1871 to 1874, he conducted the concerts of the “Gesellschaft der Musikfreunde,” but after that, he held no official position. Aside from trips to Italy in spring or Switzerland in summer, he seldom left Vienna. He declined to travel to England to accept the honorary Mus.D. offered by Cambridge University; however, Breslau University awarded him a Ph.D. in 1881. In 1886, he was made a knight of the Prussian order Pour le mérite, and in 1889, he received the freedom of his hometown. He died in Vienna on April 3, 1897.

The works of Brahms may be summarized as follows:—Various sacred compositions for chorus, op. 12, 13, 22, 27, 29, 30, 37, leading up to op. 45, the “German Requiem” first performed at Bremen in 1868, and subsequently completed by a soprano solo with chorus; the “Triumphlied” in commemoration of the German victories of 1870-71; and some choral songs and motets, op. 74, 109 and 110. Secular choral works, op. 17, 41, 42, 44, 50 (“Rinaldo” for tenor solo and male choir), 53 (“Rhapsodie,” alto solo and male choir), 54 (“Schicksalslied”), 62, 82 (Schiller’s Nänie), 89 (“Gesang der Parzen”), 93, 104, 113. Concerted vocal-works, op. 20, 28, 31, 52 (“Liebeslieder-Walzer”), 61, 64, 65 (“Neue Liebeslieder”), 75, 92, 103, 112. Solo songs, nearly 300. Orchestral works: four symphonies, op. 68, 73, 90 and 98; two serenades, op. 11 and 16; two pianoforte concertos, op. 15 and 83, one violin concerto, op. 77; concerto for violin and violoncello, op. 102; variations on a theme by Haydn, op. 56; two overtures, “Academische Festouvertüre,” op. 80, and “Tragic Overture,” op. 81. Chamber music: two sextets, op. 18 and 36; quintet, piano and strings, op. 34, strings, op. 88 and 111, clarinet and strings, op. 115; three string quartets, op. 51 and 67, three quartets for piano and strings, op. 25, 26 and 60. Three trios for piano and strings, op. 8, 87 and 101; trio for piano, violin and horn, op. 40; piano, clarinet and violoncello, op. 114. Duet sonatas, three for piano and violin, op. 78, 100 and 108; two for piano and violoncello, op. 38 and 99; two for piano and clarinet, op. 120. Pianoforte solos: three sonatas, op. 1, 2 and 5; scherzo, op. 4; variations, op. 9, 21, 23, 24, 35; 4 ballads, op. 10; waltzes, op. 39; two rhapsodies, op. 79; caprices and intermezzi, op. 76, 116, 117, 118 and 119. 5 studies and 51 Uebungen without opus-number, and a chorale-prelude and fugue for organ, besides four books of Hungarian Dances arranged for pianoforte duet.

The works of Brahms can be summarized as follows:—Various sacred compositions for chorus, op. 12, 13, 22, 27, 29, 30, 37, leading up to op. 45, the “German Requiem” first performed in Bremen in 1868, and later completed with a soprano solo and chorus; the “Triumphlied” to commemorate the German victories of 1870-71; and some choral songs and motets, op. 74, 109, and 110. Secular choral works, op. 17, 41, 42, 44, 50 (“Rinaldo” for tenor solo and male choir), 53 (“Rhapsodie,” alto solo and male choir), 54 (“Schicksalslied”), 62, 82 (Schiller’s Nänie), 89 (“Gesang der Parzen”), 93, 104, 113. Concerted vocal works, op. 20, 28, 31, 52 (“Liebeslieder-Walzer”), 61, 64, 65 (“Neue Liebeslieder”), 75, 92, 103, 112. Solo songs, nearly 300. Orchestral works: four symphonies, op. 68, 73, 90, and 98; two serenades, op. 11 and 16; two piano concertos, op. 15 and 83, one violin concerto, op. 77; concerto for violin and cello, op. 102; variations on a theme by Haydn, op. 56; two overtures, “Academische Festouvertüre,” op. 80, and “Tragic Overture,” op. 81. Chamber music: two sextets, op. 18 and 36; quintet for piano and strings, op. 34, strings, op. 88 and 111, clarinet and strings, op. 115; three string quartets, op. 51 and 67, three quartets for piano and strings, op. 25, 26, and 60. Three trios for piano and strings, op. 8, 87, and 101; trio for piano, violin, and horn, op. 40; piano, clarinet, and cello, op. 114. Duet sonatas, three for piano and violin, op. 78, 100, and 108; two for piano and cello, op. 38 and 99; two for piano and clarinet, op. 120. Piano solos: three sonatas, op. 1, 2, and 5; scherzo, op. 4; variations, op. 9, 21, 23, 24, 35; 4 ballades, op. 10; waltzes, op. 39; two rhapsodies, op. 79; caprices and intermezzi, op. 76, 116, 117, 118, and 119. 5 studies and 51 exercises without opus number, and a chorale-prelude and fugue for organ, besides four books of Hungarian Dances arranged for piano duet.

Brahms has often been called the last of the great classical masters, in a sense wider than that of his place in the long line of 390 the great composers of Germany. Though only the most superficial observers could deny him the possession of qualities which distinguish the masters of the romantic school, it is as a classicist that he must be ranked among modern musicians. From the beginning of his career until its close, his ideas were clothed by preference in the forms which had sufficed for Beethoven, and the instances in which he departed from structural precedent are so rare that they might be disregarded, were they not of such high value that they must be considered as the signs of a logical development of musical form, and not as indicating a spirit of rebellion against existing modes of structure. His practice, more frequent in later than in earlier life, of welding together the “working-out” and the “recapitulation” sections of his movements in a closer union than any of his predecessors had attempted, is an innovation which cannot fail to have important results in the future; and if the skill of younger writers is not adequate to such a display of ingenuity as occurs in the finale of the fourth symphony, where the “passacaglia” form has been used with an effect that is almost bewildering to the ordinary listener, that at least stands as a monument of inventiveness finely subordinated to the emotional and intellectual purport of the thoughts expressed. His themes are always noble, and even from the point of view of emotional appeal their deep intensity of expression is of a kind which grows upon all who have once been awakened to their beauty, or have been at the pains to grasp the composer’s characteristics of utterance. His vocal music, whether for one voice or many, is remarkable for its fidelity to natural inflection and accentuation of the words, and for its perfect reflection of the poet’s mood. His songs, vocal quartets and choral works abound in passages that prove him a master of effects of sound; and throughout his chamber music, in his treatment of the piano, of the strings, or of the solo wind instruments he employs, there are numberless examples which sufficiently show the irrelevance of a charge sometimes brought against his music, that it is deficient in a sense of what is called “tone-colour.” It is perfectly true that the mere acoustic effect of a passage was of far less importance to him than its inherent beauty, poetic import, or logical fitness in a definite scheme of development; and that often in his orchestral music the casual hearer receives an impression of complexity rather than of clearness, and is apt to imagine that the “thickness” of instrumentation is the result of clumsiness or carelessness. Such instances as the introduction to the finale of the first symphony, the close of the first movement of the second, what may be called the epilogue of the third, or the whole of the variations on a theme of Haydn, are not only marvels of delicate workmanship in regard to structure, but are instinct with the sense of the peculiar beauty and characteristics of each instrument. The “Academic Festival” overture proves Brahms a master of musical humour, in his treatment of the student songs which serve as its themes; and the companion piece, the “Tragic” overture, reaches a height of sublimity which is in no way lessened because no particular tragedy has ever been named in conjunction with the work.

Brahms is often referred to as the last of the great classical masters, in a broader sense than just his place in the long history of 390 the great composers of Germany. Only the most casual observers could deny that he possessed the qualities that distinguish the masters of the romantic school, but he should be recognized as a classicist among modern musicians. From the start of his career to its end, he preferred to express his ideas in the forms that had worked for Beethoven, and the few times he strayed from traditional structure are so rare that they could be overlooked, if they weren't so valuable as indicators of a logical evolution in musical form, rather than signs of rebellion against existing structures. His later practice of merging the “working-out” and “recapitulation” sections of his movements more tightly than any of his predecessors is an innovation that is certain to have significant effects in the future. If younger composers lack the skill to achieve the same level of creativity seen in the finale of the fourth symphony—where the “passacaglia” form is used in a way that can almost bewilder the casual listener—at least it stands as a testament to inventiveness that elegantly supports the emotional and intellectual intent of the music. His themes are consistently noble, and from an emotional standpoint, their deep expressiveness intensifies for those who have been touched by their beauty or have made the effort to understand his distinctive style. His vocal music, whether for a single voice or many, is outstanding for its fidelity to natural speech patterns and for perfectly capturing the poet’s mood. His songs, vocal quartets, and choral works are rich with moments that highlight his mastery of sound effects, and throughout his chamber music, in his treatment of the piano, strings, or solo wind instruments, there are countless examples that dispel the claim often made against his music—that it lacks a sense of “tone-color.” It is true that the mere acoustic impact of a passage mattered less to him than its inherent beauty, poetic meaning, or logical fit within a defined development scheme; and that often in his orchestral music, a casual listener perceives complexity rather than clarity and is likely to think that the “thickness” of instrumentation results from clumsiness or carelessness. Works like the introduction to the finale of the first symphony, the ending of the first movement of the second, what could be termed the epilogue of the third, or the entire variations on a theme by Haydn are not just marvels of delicate craftsmanship in structure but are also filled with a sense of the unique beauty and characteristics of each instrument. The “Academic Festival” overture showcases Brahms as a master of musical humor in his treatment of the student songs that serve as its themes; and the companion piece, the “Tragic” overture, achieves a level of sublimity that remains unaffected by the fact that no specific tragedy has ever been associated with the work.

As with all creative artists of supreme rank, the work of Brahms took a considerable time before it was very generally appreciated. The change in public opinion is strikingly illustrated in regard to the songs, which, once voted ineffective and unvocal, have now taken a place in every eminent singer’s repertory. The outline in his greater works must be grasped with some definiteness before the separate ideas can be properly understood in their true relation to each other; and while it is his wonderful power of handling the recognized classical forms, so as to make them seem absolutely new, which stamps him as the greatest musical architect since Beethoven, the necessity for realizing in some degree what musical form signifies has undoubtedly been a bar to the rapid acceptance of his greater works by the uneducated lovers of music. These are of course far more easily moved by effects of colour than by the subtler beauties of organic structure, and Brahms’s attitude towards tone-colour was scarcely such as would endear him to the large number of musicians in whose view tone-colour is pre-eminent. His mastery of form, again, has been attacked as formalism by superficial critics, blind to the real inspiration and distinction of his ideas, and to their perfection in regard to style and the appropriateness of every theme to the exact emotional state to be expressed. In his larger vocal works there are some which treat of emotional conditions far removed from the usual stock of subjects taken by the average composer; to compare the ideas in the “German Requiem” with those of the “Schicksalslied” or “Nänie” is to learn a lesson in artistic style which can never be forgotten. In the songs, too, it is scarcely too much to say that the whole range of human emotion finds expression in noble lyrics that yield to none in actual musical beauty. The four “Ernste Gesänge,” Brahms’s last composition, must be considered as his supreme achievement in dignified utterance of noble thoughts in a style that perfectly fits them. The choice of words for these as well as for the “Requiem” and others of his serious works reveals a strong sense of the vanity and emptiness of human life, but at least as strong a confidence in the divine consolations.

Just like all the top creative artists, it took a long time for people to really appreciate Brahms's work. The shift in public opinion is clearly shown when it comes to his songs, which were once seen as ineffective and unmelodic but now feature in every prominent singer's repertoire. To truly understand his larger works, one needs to grasp their overall structure before fully appreciating how each individual idea relates to the others. His remarkable ability to handle classical forms, making them feel entirely new, solidifies his status as the greatest musical architect since Beethoven. However, the need to understand musical form to some extent has been a barrier to the swift acceptance of his major works by those who aren't formally educated in music. These listeners are often more moved by color and texture than by the subtler beauties of intricate structure, and Brahms’s approach to tone color didn’t exactly endear him to many musicians who prioritize it. His mastery of form has also faced criticism as being overly formal by shallow critics who miss the genuine inspiration and uniqueness of his ideas, as well as their stylistic perfection and the relevance of each theme to the specific emotional state being expressed. In his larger vocal works, there are pieces that explore emotional themes far removed from the usual subjects addressed by most composers. Comparing the ideas in the “German Requiem” with those in “Schicksalslied” or “Nänie” offers an unforgettable lesson in artistic style. In his songs, it’s hardly an exaggeration to say that a wide range of human emotions is beautifully expressed through lyrics that are unrivaled in musical beauty. The four “Ernste Gesänge,” Brahms’s last composition, should be regarded as his greatest achievement in conveying profound thoughts in a style that fits perfectly. The word choices in these works, as well as in the “Requiem” and other serious pieces, highlight a strong awareness of the vanity and emptiness of human existence, paired with an equally strong faith in divine comfort.

It has been the misfortune of the musical world in Germany that every prominent musician is ranged by critics and amateurs in one of two hostile camps, and it was probably due in the main to the misrepresentations of the followers of Wagner that the idea was so generally held that Brahms was a man of narrow sympathies and hard, not to say brutal manners. The latter impression was fostered, no doubt, by the master’s natural detestation of the methods by which the average lionizer seeks to gain his object, and both alike are disproved in the Recollections of J.V. Widmann, an intimate friend for many years, which throw a new light on the master, revealing him as a man of the widest artistic sympathies, neither intolerant of excellence in a line opposed to his own, nor weakly enthusiastic over mediocre productions by composers whose views were in complete sympathy with him. His admiration for Verdi and Wagner is enough to show that the absence of any operatic work from his list of compositions was simply due to the difficulty of finding a libretto which appealed to him, not to any antagonism to the lyric stage in its modern developments. How far he stood from the prejudices of the typical pedant may be seen in the passionate love he showed throughout his life for national music, especially that of Hungary. Not only were his arrangements of Hungarian dances the first work by which his name was known outside his native land, but his first pianoforte quartet, op. 25 in G minor, incurred the wrath of the critics of the time by its introduction of some characteristics of Hungarian music into the finale. His arrangement of a number of children’s traditional songs was published without his name, and dedicated to the children of Robert and Clara Schumann in the earliest years of his creative life; and among the last of his publications was a collection of forty-nine German Volkslieder, arranged with the utmost skill, taste and simplicity. He had a great admiration for the waltzes of Strauss, and in many passages of his own works the entrain that is characteristic of the Viennese dance-writers is present in a striking degree.

The musical world in Germany has unfortunately placed every prominent musician into one of two opposing camps as seen by critics and amateurs. This division was largely due to the misrepresentations by Wagner's followers, who led many to believe that Brahms had narrow interests and a harsh, if not brutal, manner. This perception was likely reinforced by Brahms’s natural dislike for the ways in which typical admirers try to achieve their goals. Both impressions are challenged in the Recollections of J.V. Widmann, an intimate friend for many years, which shed new light on Brahms as a man with broad artistic sympathies; he was neither intolerant of excellence in music that differed from his own nor overly enthusiastic about mediocre works by composers who shared his views. His admiration for Verdi and Wagner demonstrates that the absence of operatic works in his compositions was simply because he struggled to find a libretto that resonated with him, not because he opposed modern developments in opera. His passionate love for national music, particularly that of Hungary, shows how far he was from the typical pedant's biases. His arrangements of Hungarian dances were the first works that brought him recognition outside his homeland, while his first piano quartet, op. 25 in G minor, drew criticism for incorporating elements of Hungarian music into its finale. He published an arrangement of traditional children’s songs without his name, dedicating it to the children of Robert and Clara Schumann during his early creative years. Among his final publications was a collection of forty-nine German folk songs, arranged with great skill, taste, and simplicity. He greatly admired Strauss's waltzes, and many passages in his works exhibit the characteristic rhythm of the Viennese dance composers.

See also W.H. Hadow, Studies in Modern Music (2nd series, 1908); and the articles Music, Song.

See also W.H. Hadow, Studies in Modern Music (2nd series, 1908); and the articles Music, Song.

(J. A. F. M.)

BRAHUI, a people of Baluchistan, inhabiting the Brahui mountains, which extend continuously from near the Bolan Pass to Cape Monze on the Arabian Sea. The khan of Kalat, the native ruler of Baluchistan, is himself a Brahui, and a lineal descendant of Kumbar, former chief of the Kumbarini, a Brahui tribe. The origin of the Brahuis is an ethnological mystery. Bishop Robert Caldwell and other authorities declare them Dravidians, and regard them as the western borderers of Dravidian India. Others believe them to be Scythians,1 and others again connect them with Tatar 391 mountaineers who early settled in southern parts of Asia. The origin of the word itself is in doubt. It is variously derived as a corruption of the Persian Ba Rohi (literally “of the hills”); as an eponym from Braho, otherwise Brahin or Ibrahim, a legendary hero of alleged Arab descent who led his people “out of the west,” while Dr Gustav Oppert believes that the name is in some way related to, if not identical with, that of the Baluchis. He recognizes in the name of the Paratas and Paradas, who dwelt in north-eastern Baluchistan, the origin of the modern Brahui. He gives reasons for regarding the Bra as a contraction of Bara and obtains “thus in Barahui a name whose resemblance to that of the ancient Barrhai (the modern Bhars), as well as to that of the Paratas and Paravar and their kindred the Maratha Paravari and Dravidian Parheyas of Palaman, is striking.” The Brahuis declare themselves to be the aborigines of the country they now occupy, their ancestors coming from Aleppo. For this there seems little foundation, and their language, which has no affinities with Persian, Pushtu or Baluchi, must be, according to the most eminent scholars, classed among the Dravidian tongues of southern India. Probably the Brahuis are of Dravidian stock, a branch long isolated from their kindred and much Arabized, and thus exhibiting a marked hybridism.

BRAHUI, a group from Baluchistan, lives in the Brahui mountains, which stretch continuously from near the Bolan Pass to Cape Monze on the Arabian Sea. The khan of Kalat, the local ruler of Baluchistan, is himself a Brahui and a direct descendant of Kumbar, the former chief of the Kumbarini, a Brahui tribe. The origins of the Brahuis are an ethnological mystery. Bishop Robert Caldwell and other experts describe them as Dravidians, considering them the western edge of Dravidian India. Some think they are Scythians, while others associate them with Tatar mountaineers who settled in southern Asia long ago. The origin of the word itself is uncertain. It is thought to be a corruption of the Persian Ba Rohi (meaning “of the hills”); attributed to Braho, also known as Brahin or Ibrahim, a legendary hero of supposed Arab descent who led his people “out of the west.” Dr. Gustav Oppert believes the name is somehow related, if not identical, to the Baluchis. He sees the names of the Paratas and Paradas, who lived in northeastern Baluchistan, as the root of the modern Brahui. He argues that the Bra is a shortening of Bara, leading to “Barahui,” a name that closely resembles the ancient Barrhai (the modern Bhars), as well as the Paratas, Paravar, and their relatives the Maratha Paravari and the Dravidian Parheyas of Palaman. The Brahuis claim to be the original inhabitants of the land they now occupy, saying their ancestors came from Aleppo. There seems to be little evidence for this, and their language, which does not resemble Persian, Pushtu, or Baluchi, is classified by leading scholars as one of the Dravidian languages from southern India. Likely, the Brahuis are of Dravidian origin, a branch that has been long isolated from their relatives and heavily influenced by Arab culture, resulting in a distinct hybrid identity.

Whatever their origin, the Brahuis are found in a position of considerable power in Baluchistan from earliest times. Their authentic history begins with Mir Ahmad, who was their chief in the 17th century. The title of “khan” was assumed by Nasir the Great in the middle of the 18th century. The Brahuis are a confederacy of tribes possessing common lands and uniting from time to time for purposes of offence or defence. At their head is the khan, who formerly seems to have been regarded as semi-divine, it being customary for the tribesmen on visiting Kalat to make offerings at the Ahmadzai gate before entering. The Brahuis are a nomadic race, who dwell in tents made of goats’ hair, black or striped, and live chiefly on the products of their herds. They are Sunnite Mahommedans, but are not fanatical. In physique they are very easily distinguished from their neighbours, the Baluchis and Pathans, being a smaller, sturdier people with rounder faces characterized by the flat, blunt and coarse features of the Dravidian races. They are of a dark brown colour, their hair and beards being often brown not black. They are an active, hardy race, and though as avaricious as the Pathans, are more trustworthy and less turbulent. Their ordinary dress is a tunic or shirt, trousers gathered in at the ankles and a cloak usually of brown felt. A few wear turbans, but generally their headgear is a round skullcap with tassel or button. Their women are not strictly veiled. Sandals of deer or goat skin are worn by all classes. Their weapons are rifles, swords and shields. They do not use the Afghan knife or any spears. Some few Brahuis are enlisted in the Bombay Native Infantry.

Whatever their origin, the Brahuis have held a position of significant power in Baluchistan for a long time. Their documented history starts with Mir Ahmad, their chief in the 17th century. Nasir the Great took on the title of “khan” in the mid-18th century. The Brahuis are a coalition of tribes that share common land and come together occasionally for offensive or defensive purposes. At their leadership is the khan, who was once seen as semi-divine; it was common for tribesmen to make offerings at the Ahmadzai gate when visiting Kalat before entering. The Brahuis are a nomadic group, living in tents made of goats’ hair, either black or striped, and primarily depend on their herds for sustenance. They follow Sunni Islam but are not fanatical. Physically, they are easily recognizable from their neighbors, the Baluchis and Pathans, as they tend to be shorter, sturdier, and have rounder faces, displaying the flat, blunt features typical of Dravidian races. Their skin tone is a dark brown, and their hair and beards are often brown instead of black. The Brahuis are a vigorous and resilient people; while they can be as greedy as the Pathans, they are generally more reliable and less unruly. Their typical attire includes a tunic or shirt, trousers gathered at the ankles, and a cloak usually made of brown felt. Some wear turbans, but most opt for a round skullcap with a tassel or button. Their women do not wear strict veils. Everyone wears sandals made from deer or goat skin. Their weapons include rifles, swords, and shields, but they do not carry the Afghan knife or any spears. A few Brahuis are part of the Bombay Native Infantry.

See Dr Bellew, Indus to Euphrates (London, 1874); Gustav Oppert, The Original Inhabitants of India (1893); Dr Theodore Duka, Essay on the Brahui Grammar (after the German of Dr Trumpp of Munich University).

See Dr. Bellew, Indus to Euphrates (London, 1874); Gustav Oppert, The Original Inhabitants of India (1893); Dr. Theodore Duka, Essay on the Brahui Grammar (after the German of Dr. Trumpp of Munich University).


1 Compare Mountstuart Elphinstone’s (History of India, 9th ed., 1905, p. 249) description of Scythians with physique of Brahuis. A relationship between the Jats (q.v.) and the Brahuis has been suggested, and it is generally held that the former were of Scythic stock. The Mengals, Bizanjos and Zehris, the three largest Brahui tribes, are called Jadgal or Jagdal, i.e. Jats, by some of their neighbours. The Zaghar Mengal, a superior division of the Mengal tribe, believe they themselves came from a district called Zughd, somewhere near Samarkand in central Asia. Gal appears to be a collective suffix in Baluchi, and Men or Min occurs on the lists of the Behistun inscriptions as the name of one of the Scythian tribes deported by Darius, the Achaemenian, for their turbulence (see Kalat, A Memoir on the County and Family of the Ahmadzai Khans of Kalat, by G.P. Tate). Sajdi, another Brahui tribal name, is Scythian, the principal clan of which tribe is the Saga, both names being identifiable with the Sagetae and Saki of ancient writers. Thus there seems some reason for believing that the former occupants of at least some portions of the Brahui domain were of Scythian blood.

1 Compare Mountstuart Elphinstone’s (History of India, 9th ed., 1905, p. 249) description of Scythians with the appearance of the Brahuis. A connection between the Jats (q.v.) and the Brahuis has been proposed, and it's generally accepted that the Jats originated from Scythian ancestry. The Mengals, Bizanjos, and Zehris, the three largest Brahui tribes, are referred to as Jadgal or Jagdal, i.e. Jats, by some of their neighbors. The Zaghar Mengal, a prominent subgroup of the Mengal tribe, believe they hail from a region called Zughd, located near Samarkand in Central Asia. Gal appears to be a collective suffix in Baluchi, while Men or Min is mentioned in the Behistun inscriptions as one of the Scythian tribes exiled by Darius, the Achaemenian, due to their rebelliousness (see Kalat, A Memoir on the County and Family of the Ahmadzai Khans of Kalat, by G.P. Tate). Sajdi, another Brahui tribal name, is linked to the Scythians; the main clan of this tribe is the Saga, and both names can be traced back to the Sagetae and Saki mentioned by ancient writers. This suggests that there is some basis for believing that the earlier inhabitants of at least parts of the Brahui region were of Scythian descent.


BRAID (from the O. Eng. bregdan, to move quickly to and fro, hence to weave), a plait, especially a plait of hair, also a plaited tape woven of wool, silk, gold thread, &c., used for trimming or binding. A particular use is for the narrow bands, bordered with open work, used in making point lace.

BRAID (from Old English bregdan, meaning to move quickly back and forth, hence to weave), refers to a braid, especially a braid of hair. It can also mean a woven tape made of wool, silk, gold thread, etc., used for trimming or binding. A specific application is for the narrow bands, bordered with open work, used in making point lace.


BRAIDWOOD, THOMAS (1715-1806), British teacher of the deaf and dumb, was born in Scotland in 1715, and educated at Edinburgh University. He became a school teacher, and in 1760 opened in Edinburgh, with one pupil, the first school in Great Britain for the deaf and dumb, following the system of Dr John Wallis, described in Philosophical Transactions nearly a hundred years before. This school was the model for all of the early English institutions of the kind. Dr Johnson visited it in 1773, and describes it as “a subject of philosophical curiosity ... which no other city has to show,” and Braidwood’s dozen pupils as able “to hear with the eye.” In 1783 Braidwood moved to Hackney, where he died on the 24th of October 1806.

BRAIDWOOD, THOMAS (1715-1806), a British teacher for the deaf and mute, was born in Scotland in 1715 and educated at Edinburgh University. He became a schoolteacher and in 1760 opened in Edinburgh, with one student, the first school in Great Britain for the deaf and mute, based on the system of Dr. John Wallis, which was discussed in Philosophical Transactions nearly a hundred years earlier. This school served as the model for all early English institutions of its kind. Dr. Johnson visited it in 1773 and described it as “a subject of philosophical curiosity ... which no other city has to show,” noting that Braidwood’s dozen students were capable of “hearing with the eye.” In 1783, Braidwood relocated to Hackney, where he passed away on October 24, 1806.


BRAILA (in Rumanian Braĭla, formerly Ibraila), the capital of the department of Braila, Rumania; situated amid flat and dreary country on the left bank of the river Danube, about 100 m. from its mouth at Sulina. Pop. (1900) 58,392, including 10,811 Jews. Southward, the Danube encircles a vast fen, tenanted only by waterfowl and herds of half-wild swine, while the plain which extends to the north-east and east only grows fertile at some distance inland. Braila itself is plainly built on a bank rising about 50 ft. above sea-level; but partly on a narrow strip of ground which separates this bank from the water’s edge. Along the crest of the bank a public park is laid out, commanding a view of the desolate Dobrudja hills, across the river.

BRAILA (in Romanian Braĭla, formerly Ibraila), the capital of the Braila department in Romania; located in a flat and bleak landscape on the left bank of the Danube River, about 100 meters from its mouth at Sulina. Population (1900) 58,392, including 10,811 Jews. To the south, the Danube wraps around a large marsh, inhabited only by waterfowl and herds of semi-wild pigs, while the plain that stretches to the northeast and east only becomes fertile a ways inland. Braila itself is simply constructed on a bank that rises about 50 feet above sea level; partly on a narrow strip of land that separates this bank from the water's edge. A public park runs along the top of the bank, offering a view of the barren Dobrudja hills across the river.

On the landward side, Braila has the shape of a crescent, the curve of its outer streets following the line of the old fortifications, dismantled in 1829. Few houses, among the older quarters, exceed two storeys in height, but the main streets are paved, and there is a regular supply of filtered water. A wide avenue, the Strada Bulivardului, divides the town proper from the suburbs. The principal church, among many, is the cathedral of St Michael, a large, ungainly building of grey sandstone. Electric tramways intersect the town, and are continued for 3 m. to Lacul Sărat (Salt Lake), where there are mineral springs and mud-baths, owned by the state. The waters, which contain over 45% of salt, iodine and sulphur, are among the strongest of their kind in Europe; and are of high repute, being annually visited by more than a thousand patients. Braila is the seat of a chamber of commerce. It is the chief port of entry for Walachia, and the headquarters of the grain trade; for, besides its advantageous position on the river, it is connected with the central Walachian railways by a line to Buzeu, and with the Russian and Moldavian systems by a line to Galatz. Quays, where ships drawing 15 ft. of water can discharge, line the river front; and there are large docks, grain elevators and warehouses, besides paper mills, roperies, and soap and candle works. Over 20 steamers, maintained by the state, ply between Braila and Rotterdam. Among the vessels of all nations, the British are first in numbers and tonnage, the Greek second. Grain and timber form the chief articles of export; textiles, machinery, iron goods and coal being most largely imported.

On the land side, Braila has a crescent shape, with the curve of its outer streets following the line of the old fortifications that were taken down in 1829. Few houses in the older areas are taller than two stories, but the main streets are paved, and there’s a steady supply of filtered water. A broad avenue, the Strada Bulivardului, separates the town from the suburbs. The main church among many is the cathedral of St Michael, a large and awkward building made of grey sandstone. Electric trams run through the town and continue for 3 miles to Lacul Sărat (Salt Lake), where there are mineral springs and mud baths operated by the state. The waters, which have over 45% salt, iodine, and sulfur, are some of the strongest of their kind in Europe and are well-known, attracting more than a thousand visitors each year. Braila is home to a chamber of commerce. It is the main port of entry for Wallachia and the center of the grain trade. Besides its strategic position on the river, it connects with the central Wallachian railways via a line to Buzău, and with the Russian and Moldavian rail systems through a line to Galați. The riverfront is lined with quays where ships that draw up to 15 feet of water can unload, and there are large docks, grain elevators, and warehouses, as well as paper mills, rope factories, and soap and candle production facilities. Over 20 state-owned steamers travel between Braila and Rotterdam. Among ships from various nations, the British have the largest number and tonnage, followed by the Greeks. Grain and timber are the main exports, while textiles, machinery, iron goods, and coal make up the bulk of imports.

Many events connected with the history of Walachia took place in the neighbourhood of Braila. In 1475 Stephen the Great, having dethroned the voivode Radu, burned the town. In 1573 another Moldavian prince took the city by storm, and massacred the Turkish garrison. In 1659 it was again burned by the Walachian prince Mircea, and for the time the Turks were expelled, but afterwards returned. In the latter part of the 18th century Braila was several times captured by the Russians, and in 1770 it was burned. By the peace of Bucharest (1812) the Turks retained the right of garrisoning Braila. In 1828 it was gallantly defended by Soliman Pasha, who, after holding out from the middle of May until the end of June, was allowed to march out with the honours of war. At the peace of Adrianople (1829) the place was definitely assigned to Walachia; but before giving it up, the grand-duke Michael of Russia razed the citadel, and in this ruinous condition it was handed over to the Walachians. Braila was the spot chosen by the Russian general Gorchakov for crossing the Danube with his division in 1854. On the banks of the Danube, a little above the city, are some remains of the piles of a bridge said by a very doubtful tradition to have been built by Darius (c. 500 B.C.).

Many significant events related to the history of Walachia happened around Braila. In 1475, Stephen the Great dethroned the voivode Radu and burned the town. In 1573, another Moldavian prince stormed the city and massacred the Turkish garrison. In 1659, it was burned again by the Walachian prince Mircea, temporarily expelling the Turks, who returned later. In the late 18th century, Braila was captured multiple times by the Russians, and it was burned in 1770. By the peace of Bucharest (1812), the Turks kept the right to garrison Braila. In 1828, it was bravely defended by Soliman Pasha, who held out from mid-May to the end of June and was allowed to leave with honors. At the peace of Adrianople (1829), the city was officially assigned to Walachia, but before handing it over, the grand-duke Michael of Russia destroyed the citadel, leaving it in ruins when it was given to the Walachians. Braila was the location chosen by the Russian general Gorchakov to cross the Danube with his division in 1854. Along the banks of the Danube, a bit upstream from the city, there are some remains of bridge piles that an uncertain legend claims were built by Darius (c. 500 B.C.).


BRAIN (A.S. braegen), that part of the central nervous system which in vertebrate animals is contained within the cranium or skull; it is divided into the great brain or cerebrum, the hind brain or cerebellum, and the medulla oblongata, which is the transitional part between the spinal cord and the other 392 two parts already named. Except where stated, we deal here primarily with the brain in man.

BRAIN (A.S. braegen), the part of the central nervous system found within the skull of vertebrate animals; it is divided into the cerebrum (the great brain), the cerebellum (the hind brain), and the medulla oblongata, which connects the spinal cord to the other two sections already mentioned. Unless noted otherwise, we focus mainly on the human brain. 392

1. Anatomy

Anatomy

Membranes of the Human Brain.

Brain Membranes.

Fig. 1.—Dura Mater and Cranial Sinuses.

1. Falx cerebri.

Falx cerebri.

2. Tentorium.

2. Tentorium.

3,3. Superior longitudinal sinus.

3,3. Superior longitudinal sinus.

4. Lateral sinus.

Lateral sinus.

5. Internal jugular vein.

Internal jugular vein.

6. Occipital sinus.

6. Occipital sinus.

6′. Torcular Herophili.

6′. Torcular Herophili.

7. Inferior longitudinal sinus.

Inferior longitudinal sinus.

8. Veins of Galen.

8. Galen's Veins.

9 and 10. Superior and inferior petrosal sinus.

9 and 10. Superior and inferior petrosal sinus.

11. Cavernous sinus.

11. Cavernous sinus.

12. Circular sinus which connects the two cavernous sinuses together.

12. Circular sinus that connects the two cavernous sinuses.

13. Ophthalmic vein, from 15, the eyeball.

13. Ophthalmic vein, from 15, the eyeball.

14. Crista galli of ethmoid bone.

14. Crista galli of the ethmoid bone.

Three membranes named the dura mater, arachnoid and pia mater cover the brain and lie between it and the cranial cavity. The most external of the three is the dura mater, which consists of a cranial and a spinal portion. The cranial part is in contact with the inner table of the skull, and is adherent along the lines of the sutures and to the margins of the foramina, which transmit the nerves, more especially to the foramen magnum. It forms, therefore, for these bones an internal periosteum, and the meningeal arteries which ramify in it are the nutrient arteries of the inner table. As the growth of bone is more active in infancy and youth than in the adult, the adhesion between the dura mater and the cranial bones is greater in early life than at maturity. From the inner surface of the dura mater strong bands pass into the cranial cavity, and form partitions between certain of the subdivisions of the brain. A vertical longitudinal mesial band, named, from its sickle shape, falx cerebri, dips between the two hemispheres of the cerebrum. A smaller sickle-shaped vertical mesial band, the falx cerebelli, attached to the internal occipital crest, passes between the two hemispheres of the cerebellum. A large band arches forward in the horizontal plane of the cavity, from the transverse groove in the occipital bone to the clinoid processes of the sphenoid, and is attached laterally to the upper border of the petrous part of each temporal bone. It separates the cerebrum from the cerebellum, and, as it forms a tent-like covering for the latter, is named tentorium cerebelli. Along certain lines the cranial dura mater splits into two layers to form tubular passages for the transmission of venous blood. These passages are named the venous blood sinuses of the dura mater, and they are lodged in the grooves on the inner surface of the skull referred to in the description of the cranial bones. Opening into these sinuses are numerous veins which convey from the brain the blood that has been circulating through it; and two of these sinuses, called cavernous, which lie at the sides of the body of the sphenoid bone, receive the ophthalmic veins from the eyeballs situated in the orbital cavities. These blood sinuses pass usually from before backwards: a superior longitudinal along the upper border of the falx cerebri as far as the internal occipital protuberance; an inferior longitudinal along its lower border as far as the tentorium, where it joins the straight sinus, which passes back as far as the same protuberance. One or two small occipital sinuses, which lie in the falx cerebelli, also pass to join the straight and longitudinal sinuses opposite this protuberance; several currents of blood meet, therefore, at this spot, and as Herophilus supposed that a sort of whirlpool was formed in the blood, the name torcular Herophili has been used to express the meeting of these sinuses. From the torcular the blood is drained away by two large sinuses, named lateral, which curve forward and downward to the jugular foramina to terminate in the internal jugular veins. In its course each lateral sinus receives two petrosal sinuses, which pass from the cavernous sinus backwards along the upper and lower borders of the petrous part of the temporal bone. The dura mater consists of a tough, fibrous membrane, somewhat flocculent externally, but smooth, glistening, and free on its inner surface. The inner surface has the appearance of a serous membrane, and when examined microscopically is seen to consist of a layer of squamous endothelial cells. Hence the dura mater is sometimes called a fibro-serous membrane. The dura mater is well provided with lymph vessels, which in all probability open by stomata on the free inner surface. Between the dura mater and the subjacent arachnoid membrane is a fine space containing a minute quantity of limpid serum, which moistens the smooth inner surface of the dura and the corresponding smooth outer surface of the arachnoid. It is regarded as equivalent to the cavity of a serous membrane, and is named the sub-dural space.

Three membranes called the dura mater, arachnoid, and pia mater cover the brain and sit between it and the cranial cavity. The outermost of the three is the dura mater, which has a cranial part and a spinal part. The cranial section is in contact with the inner layer of the skull, adhering along the lines of the sutures and to the edges of the openings that let nerves through, especially at the foramen magnum. It acts as an internal periosteum for these bones, and the meningeal arteries within it serve as the nutrient arteries for the inner layer. Since bone growth is more active in infancy and childhood than in adulthood, the connection between the dura mater and the cranial bones is stronger in early life than in adulthood. Strong bands extend from the inner surface of the dura mater into the cranial cavity, creating partitions between some of the brain's subdivisions. A vertical mesial band, called the falx cerebri due to its sickle shape, dips between the two hemispheres of the cerebrum. A smaller sickle-shaped vertical mesial band, the falx cerebelli, which is attached to the internal occipital crest, passes between the two hemispheres of the cerebellum. A large band curves forward in the horizontal plane of the cavity, from the transverse groove in the occipital bone to the clinoid processes of the sphenoid, and is attached laterally to the upper edge of the petrous part of each temporal bone. It separates the cerebrum from the cerebellum and, resembling a tent over the latter, is called the tentorium cerebelli. Along certain lines, the cranial dura mater splits into two layers to form tube-like passages for carrying venous blood. These passages are known as the venous blood sinuses of the dura mater and sit in the grooves on the inner surface of the skull mentioned in the description of the cranial bones. Many veins empty into these sinuses, carrying away the blood that has circulated through the brain; two of these sinuses, called cavernous, are located at the sides of the sphenoid bone and receive the ophthalmic veins from the eyeballs in the orbital cavities. These blood sinuses typically flow from front to back: a superior longitudinal sinus runs along the upper border of the falx cerebri to the internal occipital protuberance; an inferior longitudinal sinus follows its lower border to the tentorium, where it connects with the straight sinus, which continues back to the same protuberance. One or two small occipital sinuses in the falx cerebelli also connect with the straight and longitudinal sinuses opposite this protuberance; thus, several blood currents converge at this point, and since Herophilus believed that a kind of whirlpool formed in the blood there, the term torcular Herophili has been used to describe the meeting of these sinuses. From the torcular, blood is drained away by two large sinuses called lateral sinuses, which curve forward and downward toward the jugular foramina, ending in the internal jugular veins. Along their course, each lateral sinus receives two petrosal sinuses that travel from the cavernous sinus backward along the upper and lower edges of the petrous part of the temporal bone. The dura mater is a tough, fibrous membrane, slightly fluffy on the outside but smooth, shiny, and free on its inner surface. The inner surface resembles a serous membrane, and when viewed under a microscope, it consists of a layer of squamous endothelial cells. Therefore, the dura mater is sometimes referred to as a fibro-serous membrane. The dura mater has many lymph vessels, which likely open through small pores on its free inner surface. Between the dura mater and the underlying arachnoid membrane is a tiny space containing a small amount of clear serum, which moistens the smooth inner surface of the dura and the matching smooth outer surface of the arachnoid. This space is considered equivalent to the cavity of a serous membrane and is called the sub-dural space.

Arachnoid Mater.—The arachnoid is a membrane of great delicacy and transparency, which loosely envelops both the brain and spinal cord. It is separated from these organs by the pia mater; but between it and the latter membrane is a distinct space, called sub-arachnoid. The sub-arachnoid space is more distinctly marked beneath the spinal than beneath the cerebral parts of the membrane, which forms a looser investment for the cord than for the brain. At the base of the brain, and opposite the fissures between the convolutions of the cerebrum, the interval between the arachnoid and the pia mater can, however, always be seen, for the arachnoid does not, like the pia mater, clothe the sides of the fissures, but passes directly across between the summits of adjacent convolutions. The sub-arachnoid space is subdivided into numerous freely-communicating loculi by bundles of delicate areolar tissue, which bundles are invested, as Key and Retzius have shown, by a layer of squamous endothelium. The space contains a limpid cerebro-spinal fluid, which varies in quantity from 2 drachms to 2 oz., and is most plentiful in the dilatations at the base of the brain known as cisternae. It should be clearly understood that there is no communication between the subdural and sub-arachnoid spaces, but that the latter communicates with the ventricles through openings in the roof of the fourth, and in the descending cornua of the lateral ventricles.

Arachnoid Mater.—The arachnoid is a very thin and transparent membrane that loosely surrounds both the brain and spinal cord. It is separated from these organs by the pia mater; however, there is a distinct space between it and the pia mater, called the sub-arachnoid space. This sub-arachnoid space is more clearly defined beneath the spinal cord than beneath the brain areas, as it forms a looser covering for the cord compared to the brain. At the base of the brain, where the grooves between the brain folds are, the gap between the arachnoid and pia mater is always visible, since the arachnoid does not attach to the sides of the grooves like the pia mater does but moves directly across between the peaks of neighboring folds. The sub-arachnoid space is divided into many interconnected compartments by bundles of delicate connective tissue, which are covered, as shown by Key and Retzius, by a layer of flat endothelial cells. This space contains clear cerebro-spinal fluid, which can range in amount from 2 drachms to 2 oz., and is most abundant in the enlargements at the base of the brain known as cisternae. It is important to note that there is no connection between the subdural and sub-arachnoid spaces; instead, the latter connects with the ventricles through openings in the roof of the fourth ventricle and in the descending horns of the lateral ventricles.

When the skull cap is removed, clusters of granular bodies are usually to be seen imbedded in the dura mater on each side of the superior longitudinal sinus; these are named the Pacchionian bodies. When traced through the dura mater they are found to spring from the arachnoid. The observations of Luschka and Cleland have proved that villous processes invariably grow from the free surface of that membrane, and that when these villi greatly increase in size they form the bodies in question. Sometimes the Pacchionian bodies greatly hypertrophy, occasioning absorption of the bones of the cranial vault and depressions on the upper surface of the brain.

When the skull cap is removed, you can usually see clusters of granular bodies embedded in the dura mater on each side of the superior longitudinal sinus; these are called the Pacchionian bodies. When traced through the dura mater, they originate from the arachnoid. The observations by Luschka and Cleland have shown that villous processes always grow from the free surface of that membrane, and when these villi significantly enlarge, they form the bodies in question. Sometimes, the Pacchionian bodies become greatly hypertrophied, causing the absorption of the bones of the cranial vault and depressions on the upper surface of the brain.

After D.J. Cunningham’s Textbook of Anatomy.

Fig. 2.—Front View of the Medulla, Pons and Mesencephalon of a full-time Human Foetus.

Pia Mater.—This membrane closely invests the whole outer surface of the brain. It dips into the fissures between the convolutions, and a wide prolongation, named velum interpositum, lies in the interior of the cerebrum. With a little care it can be stripped off the brain without causing injury to its substance. At the base of the brain the pia mater is prolonged on to the roots of the cranial nerves. This membrane consists of a delicate connective tissue, in which the arteries of the brain and spinal cord ramify and subdivide into small branches before they penetrate the nervous substance, and in which the veins conveying the blood from the nerve centres lie before they open into the blood sinuses of the cranial dura mater and the extradural venus plexus of the spinal canal.

Pia Mater. — This membrane tightly covers the entire outer surface of the brain. It extends into the grooves between the folds, and a broad extension called velum interpositum is located inside the cerebrum. With some care, it can be separated from the brain without damaging its tissue. At the base of the brain, the pia mater continues onto the roots of the cranial nerves. This membrane is made up of a fine connective tissue, where the brain and spinal cord arteries branch out into smaller vessels before entering the nerve tissue, and where the veins that carry blood away from the nerve centers reside before they drain into the blood sinuses of the cranial dura mater and the extradural venous plexus of the spinal canal.

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393

Medulla Oblongata.

Medulla Oblongata.

The Medulla Oblongata rests upon the basi-occipital. It is somewhat pyramidal in form, about 1¼ in. long, and 1 in. broad in its widest part. It is a bilateral organ, and is divided into a right and a left half by shallow anterior and posterior median fissures, continuous with the corresponding fissures in the spinal cord; the posterior fissure ends above in the fourth ventricle. Each half is subdivided into elongated tracts of nervous matter. Next to, and parallel with the anterior fissure is the anterior pyramid (see fig. 2). This pyramid is continuous below with the cord, and the place of continuity is marked by the passage across the fissure of three or four bundles of nerve fibres, from each half of the cord to the opposite anterior pyramid; this crossing is called the decussation of the pyramids. To the side of the pyramid, and separated from it by a faint fissure, is the olivary fasciculus, which at its upper end is elevated into the projecting oval-shaped olivary body. Behind the olivary body in the lower half of the medulla are three tracts named from before backward the funiculus of Rolando, the funiculus cuneatus and the funiculus gracilis (see fig. 3). The two funiculi graciles of opposite sides are in contact in the mid dorsal line and have between them the postero median fissure. When the fourth ventricle is reached they diverge to form the lower limit of that diamond-shaped space and are slightly swollen to form the clavae. All these three bundles appear to be continued up into the cerebellum as the restiform bodies or inferior cerebellar peduncles, but really the continuity is very slight, as the restiform bodies are formed from the direct cerebellar tracts of the spinal cord joining with the superficial arcuate fibres which curve back just below the olivary bodies. The upper part of the fourth ventricle is bounded by the superior cerebellar peduncles which meet just before the inferior quadrigeminal bodies are reached. Stretching across between them is the superior medullary velum or valve of Vieussens, forming the upper part of the roof, while the inferior velum forms the lower part, and has an opening called the foramen of Majendie, through which the sub-arachnoid space communicates with the ventricle. The floor (see fig. 3) has two triangular depressions on each side of a median furrow; these are the superior and inferior fovea, the significance of which will be noticed in the development of the rhombencephalon. Running horizontally across the middle of the floor are the striae acusticae which are continued into the auditory nerve. The floor of the fourth ventricle is of special interest because a little way from the surface are the deep origins of all the cranial nerves from the fifth to the twelfth. (See Nerve, cranial). If a section is made transversely through the medulla about the apex of the fourth ventricle three important bundles of fibres are cut close to the mid line on each side (see fig. 4). The most anterior is the pyramid or motor tract, the decussation of which has been seen. Behind this is the mesial fillet or sensory tract, which has also decussated a little below the point of section, while farther back still is the posterior longitudinal bundle which is coming up from the anterior basis bundle of the cord. External to and behind the pyramid is the crenated section of the olivary nucleus, the surface bulging of which forms the olivary body.

The Medulla Oblongata sits on the basi-occipital bone. It has a somewhat pyramidal shape, measuring about 1¼ inches long and 1 inch wide at its broadest point. It is a bilateral structure, divided into a right and a left half by shallow anterior and posterior median grooves that connect with the corresponding grooves in the spinal cord; the posterior groove ends above in the fourth ventricle. Each half is further divided into elongated tracts of nerve tissue. Next to, and parallel with the anterior groove is the anterior pyramid (see fig. 2). This pyramid connects below with the spinal cord, marked by the crossing of three or four bundles of nerve fibers from each side of the cord to the opposite anterior pyramid; this crossing is known as the decussation of the pyramids. Adjacent to the pyramid, separated by a faint groove, is the olivary fasciculus, which at its upper end rises into the oval-shaped olivary body. Behind the olivary body in the lower half of the medulla are three tracts, named from front to back: the funiculus of Rolando, the funiculus cuneatus, and the funiculus gracilis (see fig. 3). The two funiculi graciles from opposite sides touch in the mid-dorsal line, with the postero median fissure between them. As they reach the fourth ventricle, they fan out to form the lower boundary of that diamond-shaped space and are slightly swollen to create the clavae. All three bundles seem to continue up into the cerebellum as the restiform bodies or inferior cerebellar peduncles, but their connection is minimal, as the restiform bodies are actually formed from the direct cerebellar tracts of the spinal cord that merge with the superficial arcuate fibers curving just below the olivary bodies. The upper part of the fourth ventricle is bordered by the superior cerebellar peduncles, which meet just before reaching the inferior quadrigeminal bodies. Stretching across between them is the superior medullary velum or valve of Vieussens, making up the upper part of the roof, while the inferior velum forms the lower section and has an opening called the foramen of Majendie, through which the sub-arachnoid space connects with the ventricle. The floor (see fig. 3) features two triangular depressions on either side of a median groove; these are the superior and inferior fovea, which will be relevant in the development of the rhombencephalon. Running horizontally across the center of the floor are the striae acusticae, which connect into the auditory nerve. The floor of the fourth ventricle is particularly interesting because just below the surface are the deep origins of all the cranial nerves from the fifth to the twelfth. (See Nerve, cranial). If you take a transverse section through the medulla at the apex of the fourth ventricle, three significant bundles of fibers are cut close to the midline on each side (see fig. 4). The most forward is the pyramid or motor tract, which we’ve noted the decussation of. Behind this is the mesial fillet or sensory tract, which also crossed over a little below the section point, and further back is the posterior longitudinal bundle coming from the anterior basis bundle of the cord. Outside and behind the pyramid, you’ll find the folded section of the olivary nucleus, the bulging surface of which creates the olivary body.

From Cunningham, Textbook of Anatomy.

Fig. 3.—Back View of the Medulla, Pons and Mesencephalon of a full-time Human Foetus.
From Cunningham, *Textbook of Anatomy.*

Figure. 4.—Transverse Section through the Human Medulla in the Lower Olivary Region.

The grey matter of the medulla oblongata, which contains numerous multipolar nerve cells, is in part continuous with the grey matter of the spinal cord, and in part consists of independent masses. As the grey matter of the cord enters the medulla it loses its crescentic arrangement. The posterior cornua are thrown outwards towards the surface, lose their pointed form, and dilate into rounded masses named the grey tubercles of Rolando. The grey matter of the anterior cornua is cut off from the rest by the decussating pyramids and finally disappears. The formatio reticularis which is feebly developed in the cord becomes well developed in the medulla. In the lower part of the medulla a central canal continuous with that of the cord exists, but when the clavae on the opposite sides of the medulla diverge from each other, the central canal loses its posterior boundary, and dilates into the cavity of the fourth ventricle. The grey matter in the interior of the medulla appears, therefore, on the floor of the ventricle and is continuous with the grey matter near the central canal of the cord. This grey matter forms collections of nerve cells, which are the centres of origin of several cranial nerves. Crossing the anterior surface of the medulla oblongata, immediately below the pons, in the majority of mammals is a transverse arrangement of fibres forming the trapezium, which contains a grey nucleus, named by van der Kolk the superior olive. In the human brain the trapezium is concealed by the lower transverse fibres of the pons, but when sections are made through it, as L. Clarke pointed out, the grey matter of the superior olive can be seen. These fibres of the trapezium come from the cochlear nucleus of the auditory nerve, and run up as the lateral fillet.

The grey matter of the medulla oblongata, which contains many multipolar nerve cells, partially connects with the grey matter of the spinal cord and also consists of separate clusters. As the grey matter from the spinal cord enters the medulla, it loses its crescent shape. The posterior cornua stretch outward toward the surface, lose their pointed shape, and expand into rounded clusters known as the grey tubercles of Rolando. The grey matter of the anterior cornua is separated from the rest by the crossing pyramids and eventually disappears. The formatio reticularis, which is weakly developed in the spinal cord, becomes well developed in the medulla. In the lower part of the medulla, there’s a central canal that is continuous with the one in the spinal cord, but when the clavae on either side of the medulla diverge, the central canal loses its back wall and expands into the cavity of the fourth ventricle. Therefore, the grey matter inside the medulla appears on the floor of the ventricle and is continuous with the grey matter near the central canal of the spinal cord. This grey matter forms groups of nerve cells, which serve as the origins for several cranial nerves. Crossing the front surface of the medulla oblongata, just below the pons, is a horizontal arrangement of fibers forming the trapezium, which contains a grey nucleus referred to by van der Kolk as the superior olive. In the human brain, the trapezium is hidden by the lower horizontal fibers of the pons, but when sections are cut through it, as L. Clarke pointed out, the grey matter of the superior olive can be observed. These fibers of the trapezium originate from the cochlear nucleus of the auditory nerve and ascend as the lateral fillet.

The Pons Varolii or Bridge is cuboidal in form (see fig. 2): its anterior surface rests upon the dorsum sellae of the sphenoid, and is marked by a median longitudinal groove; its inferior surface receives the pyramidal and olivary tracts of the medulla oblongata; at its superior surface are the two crura cerebri; each lateral surface is in relation to a hemisphere of the cerebellum, and a peduncle passes from the pons into the interior of each hemisphere; the posterior surface forms in part the upper portion of the floor of the fourth ventricle, and in part is in contact with the corpora quadrigemina.

The Pons Varolii or Bridge has a cuboid shape (see fig. 2): its front surface sits on the dorsum sellae of the sphenoid and features a central groove; its bottom surface accommodates the pyramidal and olivary tracts of the medulla oblongata; on its top surface are the two crura cerebri; each side is connected to a hemisphere of the cerebellum, and a peduncle extends from the pons into the interior of each hemisphere; the back surface partially forms the upper part of the floor of the fourth ventricle and is also in contact with the corpora quadrigemina.

From Cunningham, Textbook of Anatomy.

Fig. 5.—Section through the Lower Part of the Human Pons Varolli immediately above the Medulla.

The pons consists of white and grey matter: the nerve fibres of the white matter pass through the substance of the pons, in either a transverse or a longitudinal direction. The transverse fibres go from one hemisphere of the cerebellum to that of the opposite side; some are situated on the anterior surface of the pons, and form its superficial transverse fibres, whilst others pass through its substance and form the deep transverse fibres. The longitudinal fibres ascend from the medulla oblongata and leave the pons by emerging from its upper surface as fibres of the two crura cerebri. The pons possesses a median raphe continuous with that of the medulla oblongata, and formed like it by a decussation of fibres in the mesial plane. 394 In a horizontal section through the pons and upper part of the fourth ventricle the superficial transverse fibres are seen most anteriorly; then come the anterior pyramidal fibres, then the deep transverse pontine fibres, then the fillet, while most posteriorly and close to the floor of the fourth ventricle the posterior longitudinal bundle is seen (see fig. 5).

The pons is made up of white and gray matter: the nerve fibers of the white matter pass through the structure of the pons, either sideways or lengthwise. The sideways fibers connect one hemisphere of the cerebellum to the opposite side; some are located on the front surface of the pons, forming its superficial transverse fibers, while others go through its substance and create the deep transverse fibers. The lengthwise fibers rise from the medulla oblongata and exit the pons from its upper surface as the fibers of the two crura cerebri. The pons has a central raphe that connects with that of the medulla oblongata, formed similarly by a crossover of fibers in the middle plane. 394 In a cross-section through the pons and the upper part of the fourth ventricle, the superficial transverse fibers are seen at the front; followed by the anterior pyramidal fibers, then the deep transverse pontine fibers, then the fillet, and finally, at the back and near the bottom of the fourth ventricle, the posterior longitudinal bundle is visible (see fig. 5).

The grey matter of the pons is scattered irregularly through its substance, and appears on its posterior surface; but not on the anterior surface, composed exclusively of the superficial transverse fibres.

The gray matter in the pons is unevenly distributed throughout its structure and is visible on its back surface; however, it's not present on the front surface, which is made up entirely of the outer transverse fibers.

The Cerebellum.

The Cerebellum.

The Cerebellum, Little Brain, or After Brain occupies the inferior pair of occipital fossae, and lies below the plane of the tentorium cerebelli. It consists of two hemispheres or lateral lobes, and of a median or central lobe, which in human anatomy is called the vermis. It is connected below with the medulla oblongata by the two restiform bodies which form its inferior peduncles, and above with the corpora quadrigemina of the cerebrum by two bands, which form its superior peduncles; whilst the two hemispheres are connected together by the transverse fibres of the pons, which form the middle peduncles of the cerebellum. On the superior or tentorial surface of the cerebellum the median or vermiform lobe is a mere elevation, but on its inferior or occipital surface this lobe forms a well-defined process, which lies at the bottom of a deep fossa or vallecula; this fossa is prolonged to the posterior border of the cerebellum, and forms there a deep notch which separates the two hemispheres from each other; in this notch the falx cerebelli is lodged. Extending horizontally backwards from the middle cerebellar peduncle, along the outer border of each hemisphere is the great horizontal fissure, which divides the hemisphere into its tentorial and occipital surfaces. Each of these surfaces is again subdivided by fissures into smaller lobes, of which the most important are the amygdala or tonsil, which forms the lateral boundary of the anterior part of the vallecula, and the flocculus, which is situated immediately behind the middle peduncle of the cerebellum. The inferior vermiform process is subdivided into a posterior part or pyramid; an elevation or uvula, situated between the two tonsils; and an anterior pointed process or nodule. Stretching between the two flocculi, and attached midway to the sides of the nodule, is a thin, white, semilunar-shaped plate of nervous matter, called the inferior medullary velum.

The Cerebellum, also known as the Tiny Brain or After Brainstorming, is located in the lower pair of occipital fossae and sits beneath the tentorium cerebelli. It has two hemispheres or lateral lobes, along with a median or central lobe, which is referred to as the vermis in human anatomy. It connects below to the medulla oblongata via two restiform bodies, forming its inferior peduncles, and above to the corpora quadrigemina of the cerebrum through two bands, which create its superior peduncles. The two hemispheres are linked together by the transverse fibers of the pons, making up the middle peduncles of the cerebellum. On the upper or tentorial surface of the cerebellum, the median or vermiform lobe appears as a simple elevation, but on its lower or occipital surface, this lobe becomes a clearly defined structure, located at the bottom of a deep fossa or vallecula. This fossa extends to the back edge of the cerebellum, forming a deep notch that separates the two hemispheres; the falx cerebelli is situated within this notch. The great horizontal fissure runs horizontally backward from the middle cerebellar peduncle along the outer edge of each hemisphere, dividing the hemisphere into its tentorial and occipital surfaces. Each of these surfaces is further divided by fissures into smaller lobes, the most significant of which are the amygdala or tonsil, which sets the lateral border of the front part of the vallecula, and the flocculus, located just behind the middle peduncle of the cerebellum. The inferior vermiform process is divided into three parts: a back section known as the pyramid, an elevation called the uvula positioned between the two tonsils, and a pointed front section referred to as the nodule. Stretching between the two flocculi and attached midway to the sides of the nodule is a thin, white, semilunar-shaped plate of nervous tissue called the inferior medullary velum.

From Cunningham, Textbook of Anatomy.

Fig. 6.—Mesial section through the Corpus Callosum, the Mesencephalon, the Pons, Medulla and Cerebellum. Showing the third and fourth ventricles joined by the aqueduct of Sylvius.

The whole outer surface of the cerebellum possesses a characteristic foliated or laminated appearance, due to its subdivision into multitudes of thin plates or lamellae by numerous fissures. The cerebellum consists of both grey and white matter. The grey matter forms the exterior or cortex of the lamellae, and passes from one to the other across the bottoms of the several fissures. The white matter lies in the interior of the organ, and extends into the core of each lamella. When a vertical section is made through the organ, the prolongations of white matter branching off into the interior of the several lamellae give to the section an arborescent appearance, known by the fanciful name of arbor vitae (see fig. 6). Independent masses of grey matter are, however, found in the interior of the cerebellum. If the hemisphere be cut through a little to the outer side of the median lobe, a zigzag arrangement of grey matter, similar in appearance and structure to the nucleus of the olivary body in the medulla oblongata, and known as the corpus dentatum of the cerebellum, is seen; it lies in the midst of the white core of the hemisphere, and encloses white fibres, which leave the interior of the corpus at its inner and lower side. On the mesial side of this corpus dentatum lie three smaller nuclei. The white matter is more abundant in the hemispheres than in the median lobe, and is for the most part directly continuous with the fibres of the peduncles of the cerebellum. Thus the restiform or inferior peduncles pass from below upward through the white core, to end in the grey matter of the tentorial surface of the cerebellum, more especially in that of the central lobe; on their way they are connected with the grey matter of the corpus dentatum. The superior peduncles, which descend from the corpora quadrigemina of the cerebrum, form connexions mainly with the corpus dentatum. The middle peduncles form a large proportion of the white core, and their fibres terminate 395 in the grey matter of the foliated cortex of the hemispheres. It has been noticed that those fibres which are lowest in the pons go to the upper surface of the cerebellum and vice versa.

The entire outer surface of the cerebellum has a distinct layered look because it's divided into many thin plates or layers by numerous grooves. The cerebellum includes both gray and white matter. The gray matter forms the outer layer or cortex of the plates and extends from one to another across the bottoms of several grooves. The white matter is located inside the organ and fills the center of each plate. When you make a vertical slice through the organ, the extensions of white matter spreading into the center of the various plates create a tree-like appearance, whimsically called arbor vitae (see fig. 6). However, there are independent clusters of gray matter found in the interior of the cerebellum. If you cut the hemisphere slightly outside the median lobe, a zigzag pattern of gray matter, resembling the nucleus of the olivary body in the medulla oblongata, appears; this is known as the corpus dentatum of the cerebellum. It sits in the center of the white core of the hemisphere and surrounds white fibers that exit the inside of the corpus at its inner and lower side. On the medial side of this corpus dentatum are three smaller nuclei. There is more white matter in the hemispheres than in the median lobe, and it is mostly connected directly with the fibers of the cerebellar peduncles. The restiform or inferior peduncles move from below upward through the white core to connect with the gray matter of the upper surface of the cerebellum, especially in the central lobe; along the way, they connect with the gray matter of the corpus dentatum. The superior peduncles descend from the corpora quadrigemina of the cerebrum and primarily establish connections with the corpus dentatum. The middle peduncles make up a large part of the white core, and their fibers end in the gray matter of the layered cortex of the hemispheres. It's been observed that the fibers lowest in the pons go to the upper surface of the cerebellum, and vice versa.

Histology of the Cerebellum.—The white centre of the cerebellum is composed of numbers of medullated nerve fibres coursing to and from the grey matter of the cortex. These fibres are supported in a groundwork of neuroglial tissue, their nutrition being supplied by a small number of blood vessels.

Histology of the Cerebellum.—The white center of the cerebellum is made up of many myelinated nerve fibers traveling to and from the gray matter of the cortex. These fibers are supported by a network of glial tissue, with a few blood vessels providing their nourishment.

From Cunningham, Textbook of Anatomy.

Fig. 7.—Transverse Section through a Cerebellar Folium (after Kölliker). Treated by the Golgi method.

P. Axon of cell of Purkinje.

Purkinje cell axon.

F. Moss fibres.

Moss fibers.

K and K1. Fibres from white core of folium ending in molecular layer in connexion with the dendrites of the cells of Purkinje.

K and K1. Fibers from the white core of the folium ending in a molecular layer connected to the dendrites of Purkinje cells.

M. Small cell of the molecular layer

M. Small cell of the molecular layer

GR. Granule cell.

Granule cell.

GR1. Axons of granule cells in molecular layer cut transversely.

GR1. Axons of granule cells in the molecular layer are cut crosswise.

M1. Basket-cells.

M1. Basket cells.

ZK. Basket-work around the cells of Purkinje.

ZK. Basketwork surrounding the Purkinje cells.

GL. Neuroglial cell.

GL. Neuroglial cell.

N. Axon of an association cell.

N. Axon of an association cell.

The cortex (see fig. 7) consists of a thin layer of grey material forming an outer coat of somewhat varying thickness over the whole external surface of the laminae of the organ. When examined microscopically it is found to be made up of two layers, an outer “molecular” and an inner “granular” layer. Forming a layer lying at the junction of these two are a number of cells, the cells of Purkinje, which constitute the most characteristic feature of the cerebellum. The bodies of these cells are pear-shaped. Their inner ends taper and finally end in a nerve fibre which may be traced into the white centre. In their course through the granule layer they give off a number of branching collaterals, some turning back and passing between the cells of Purkinje into the molecular layer. Their inner ends terminate in one or sometimes two stout processes which repeatedly branch dichotomously, thus forming a very elaborate dendron in the molecular layer. The branchings of this dendron are also highly characteristic in that they are approximately restricted to a single plane like an espalier fruit tree, and those for neighbouring cells are all parallel to one another and at right angles to the general direction of the folium to which they belong. In the molecular layer are found two types of cells. The most abundant are the so-called basket cells which are distributed through the whole thickness of the layer. They have a rounded body giving off many branching dendrons to their immediate neighbourhood and one long neuraxon which runs parallel to the surface and to the long axis of the lamina. In its course, this gives off numerous collaterals which run downward to the bodies of Purkinje’s cells. Their terminal branchings together with similar terminals of other collaterals form the basket-work around the bodies of these cells.

The cortex (see fig. 7) is a thin layer of gray material that forms an outer coat of varying thickness over the entire surface of the organ's laminae. Under a microscope, it consists of two layers: an outer "molecular" layer and an inner "granular" layer. At the junction of these two layers are several cells known as the cells of Purkinje, which are the most distinctive feature of the cerebellum. These cells are pear-shaped, with their inner ends tapering to a point that connects to a nerve fiber extending into the white center. As the fibers travel through the granule layer, they branch off, with some turning back and passing between the cells of Purkinje into the molecular layer. The inner ends of these fibers split into one or two thick processes that repeatedly branch out, creating a complex dendrite in the molecular layer. The branching of this dendrite is notably characteristic, as it generally stays within a single plane like a trained fruit tree, and branches from neighboring cells remain parallel to each other and perpendicular to the overall direction of the folium to which they belong. In the molecular layer, there are two types of cells. The most common are the so-called basket cells, which are scattered throughout the entire thickness of the layer. They have a rounded body that gives rise to multiple branching dendrites in their vicinity and a long axon that runs parallel to the surface and the long axis of the lamina. As it travels, this axon produces numerous collaterals that extend downward to the bodies of Purkinje's cells. The terminal branches of these collaterals, along with the ends of other collaterals, create a basket-like structure around the bodies of these cells.

The granular layer is sometimes termed the rust-coloured layer from its appearance to the naked eye. It contains two types of nerve cells, the small granule cells and the large granule cells. The former are the more numerous. They give off a number of short dendrites with claw-like endings, and a fine non-medullated neuraxon process. This runs upward to the cortex, where it divides into two branches in the form of a T. The branches run for some distance parallel to the axis of the folium and terminate in unbranched ends. The large granule cells are multipolar cells, many of the branchings penetrating well into the molecular layer. The neuraxon process turns into the opposite direction and forms a richly branching system through the entire thickness of the granular layer. There is also an abundant plexus of fine medullated fibres within the granule layer.

The granular layer is often called the rust-colored layer because of its look to the naked eye. It contains two types of nerve cells: small granule cells and large granule cells. The small granule cells are the more numerous ones. They send out several short dendrites with claw-like tips and a fine unmyelinated axon process. This process goes upward to the cortex, where it splits into two branches that form a T-shape. The branches extend for a while parallel to the axis of the folium and end in unbranched tips. The large granule cells are multipolar cells, with many of their branches extending deep into the molecular layer. The axon process goes in the opposite direction and creates a highly branching network throughout the full thickness of the granular layer. There is also a dense network of fine myelinated fibers within the granule layer.

The fibres of the white central matter are partly centrifugal, the neuraxons of the cells of Purkinje, and partly centripetal. The position of the cells of these latter fibres is not known. The fibres give rise to an abundant plexus of fibrils in the granular layer, and many reaching into the molecular layer ramify there, especially in the immediate neighbourhood of the dendrites of Purkinje’s cells. From the appearance of their plexus of fibrils these are sometimes called moss fibres.

The fibers in the white central matter are partly outgoing, which are the neuraxons of Purkinje cells, and partly incoming. The location of the cells for these incoming fibers is unknown. These fibers form a dense network of fibrils in the granular layer, with many extending into the molecular layer, branching out particularly around the dendrites of Purkinje cells. Due to the look of this network of fibrils, they are sometimes referred to as moss fibers.

The Fourth Ventricle is the dilated upper end of the central canal of the medulla oblongata. Its shape is like an heraldic lozenge. Its floor is formed by the grey matter of the posterior surfaces of the medulla oblongata and pons, already described (see figs. 3 and 6); its roof partly by the inferior vermis of the cerebellum, the nodule of which projects into its cavity, and partly by a thin layer, called valve of Vieussens, or superior medullary velum; its lower lateral boundaries by the divergent clavae and restiform bodies; its upper lateral boundaries by the superior peduncles of the cerebellum. The inferior medullary velum, a reflection of the pia mater and epithelium from the back of the medulla to the inferior vermis, closes it in below. Above, it communicates with the aqueduct of Sylvius, which is tunnelled below the substance of the corpora quadrigemina. Along the centre of the floor is the median furrow, which terminates below in a pen-shaped form, the so-called calamus scriptorius. Situated on its floor are the fasciculi teretes, striae acusticae, and deposits of grey matter described in connexion with the medulla oblongata. Its epithelial lining is continuous with that of the central canal.

The Fourth Ventricle is the enlarged upper part of the central canal of the medulla oblongata. Its shape resembles a diamond. Its floor is made up of the gray matter on the back surfaces of the medulla oblongata and pons, which have already been described (see figs. 3 and 6); its roof consists partly of the inferior vermis of the cerebellum, with the nodule projecting into its space, and partly a thin layer known as the valve of Vieussens, or superior medullary velum; its lower lateral boundaries are defined by the diverging clavae and restiform bodies, while the upper lateral boundaries are formed by the superior peduncles of the cerebellum. The inferior medullary velum, a continuation of the pia mater and epithelium from the back of the medulla to the inferior vermis, covers it from below. Above, it connects to the aqueduct of Sylvius, which runs beneath the structure of the corpora quadrigemina. In the center of the floor is the median furrow, which ends below in a pointed shape known as the calamus scriptorius. Found on the floor are the fasciculi teretes, striae acusticae, and gray matter deposits associated with the medulla oblongata. Its epithelial lining is continuous with that of the central canal.

The Cerebrum.

The Brain.

The Cerebrum or Great Brain lies above the plane of the tentorium, and forms much the largest division of the encephalon. It is customary in human anatomy to include under the name of cerebrum, not only the convolutions, the corpora striata, and the optic thalami, developed in the anterior cerebral vesicle, but also the corpora quadrigemina and crura cerebri developed in the mesencephalon or middle cerebral vesicle. The cerebrum is ovoid in shape, and presents superiorly, anteriorly and posteriorly a deep median longitudinal fissure, which subdivides it into two hemispheres. Inferiorly there is a continuity of structure between the two hemispheres across the mesial plane, and if the two hemispheres be drawn asunder by opening out the longitudinal fissure, a broad white band, the corpus callosum, may be seen at the bottom of the fissure passing across the mesial plane from one hemisphere to the other. The outer surface of each hemisphere is convex, and adapted in shape to the concavity of the inner table of the cranial bones; its inner surface, which bounds the longitudinal fissure, is flat and is separated from the opposite hemisphere by the falx cerebri; its under surface, where it rests on the tentorium, is concave, and is separated by that membrane from the cerebellum and pons. From the front of the pons two strong white bands, the crura cerebri or cerebral peduncles, pass forward and upward (see fig. 2). Winding round the outer side of each crus is a flat white band, the optic tract. These tracts converge in front, and join to form the optic commissure, from which the two optic nerves arise. The crura cerebri, optic tracts, and optic commissure enclose a lozenge-shaped space, which includes—(a) a grey layer, which, from being perforated by several small arteries, is called locus perforatus posticus; (b) two white mammillae, the corpora albicantia; (c) a grey nodule, the tuber cinereum, from which (d) the infundibulum projects to join the pituitary body. Immediately in front of the optic commissure is a grey layer, the lamina cinerea of the third ventricle; and between the optic commissure and the inner end of each Sylvian fissure is a grey spot perforated by small arteries, the locus perforatus anticus.

The Cerebrum or Smart Mind sits above the tentorium and makes up the largest part of the brain. In human anatomy, the term cerebrum refers not just to the folds, the corpora striata, and the optic thalami found in the front part of the brain, but also to the corpora quadrigemina and crura cerebri that develop in the middle part of the brain. The cerebrum has an oval shape and features a deep median longitudinal fissure on its upper, front, and back sides, dividing it into two hemispheres. There is a structural connection between the two hemispheres across the mid-plane, and when the two hemispheres are separated by opening the longitudinal fissure, a broad white band called the corpus callosum can be seen at the bottom, running from one hemisphere to the other. The outer surface of each hemisphere is curved and fits the concave shape of the inner surface of the skull. The inner surface, which borders the longitudinal fissure, is flat and separated from the other hemisphere by the falx cerebri; the underside, which rests on the tentorium, is concave and separated from the cerebellum and pons by that membrane. From the front of the pons, two strong white bands called the crura cerebri or cerebral peduncles extend forward and upward (see fig. 2). A flat white band known as the optic tract wraps around the outer side of each crus. These tracts come together in front to form the optic commissure, from which the two optic nerves originate. The crura cerebri, optic tracts, and optic commissure enclose a diamond-shaped area that contains—(a) a grey layer, called locus perforatus posticus, which is full of small arteries; (b) two white bumps, the corpora albicantia; (c) a grey nodule known as the tuber cinereum, from which (d) the infundibulum extends to connect with the pituitary body. Just in front of the optic commissure is a grey layer named the lamina cinerea of the third ventricle; and between the optic commissure and the inner end of each Sylvian fissure is a grey spot with small arteries running through it, called the locus perforatus anticus.

From Cunningham, Textbook of Anatomy.

Fig. 8.—Transverse Section through the Human Mesencephalon at the level of the superior Quadrigeminal Body.

If a transverse section is made at right angles to the surface of the crura cerebri it will pass right through the mesencephalon and come out on the dorsal side through the corpora quadrigemina (see fig. 8). The ventral part of each crus forms the crusta, which is the continuation forward of the anterior pyramidal fibres of the medulla and pons, and is the great motor path from the brain to the cord. Dorsal to this is a layer of pigmented grey matter, called the substantia nigra, and dorsal to this again is the tegmentum, which is a continuation upward of the formatio reticularis of the medulla, and passing through it are seen three important nerve bundles. The superior cerebellar peduncle is the most internal of these and decussates with its fellow of the opposite side so that the two tegmenta are continuous across the middle line. More externally the mesial fillet is seen, while dorsal to the cerebellar peduncle is the posterior longitudinal bundle. If the section happens to pass through the superior corpus quadrigeminum a characteristic circular area appears between the cerebellar peduncle and the fillet, which, from its tint, is called the red nucleus. More dorsally still the section will pass through the Sylvian aqueduct or passage from the third to the fourth ventricle, and this is surrounded by a mass of grey matter in the ventral part of which are the nuclei of the third and fourth 396 nerves. The third nerve is seen at the level of the superior corpus quadrigeminum running from its nucleus of origin, through the red nucleus, to a groove on the inner side of the crus called the oculo-motor groove, which marks the separation between the crusta and tegmentum. Dorsal to the Sylvian aqueduct is a layer called the lamina quadrigemina and on this the corpora quadrigemina rest. The superior pair of these bodies is overlapped by the pineal body and forms part of the lower visual centres. Connexions can be traced to the optic tract, the higher visual centre on the mesial surface of the occipital lobe, the deep origin of the third or oculo-motor nerve as well as to the mesial and lateral fillet. The inferior pair of quadrigeminal bodies are more closely in touch with the organs of hearing, and are connected by the lateral fillet with the cochlear nucleus of the auditory nerve.

If you cut across the crura cerebri at a right angle to its surface, it will slice through the mesencephalon and exit on the back through the corpora quadrigemina (see fig. 8). The front part of each crus forms the crusta, which continues forward from the anterior pyramidal fibers of the medulla and pons, serving as the major motor pathway from the brain to the spinal cord. Above this is a layer of pigmented gray matter known as the substantia nigra, and above that is the tegmentum, which is an upward extension of the formatio reticularis of the medulla. Three important nerve bundles pass through the tegmentum. The superior cerebellar peduncle is the most internal of these and crosses over with its counterpart on the opposite side, allowing the two tegmenta to connect across the midline. More outward, you can see the mesial fillet, while above the cerebellar peduncle is the posterior longitudinal bundle. If the cut goes through the superior corpus quadrigeminum, a distinctive circular area appears between the cerebellar peduncle and the fillet, which is known as the red nucleus due to its color. Even more dorsally, the cut will go through the Sylvian aqueduct, which connects the third and fourth ventricles and is surrounded by a mass of gray matter containing the nuclei of the third and fourth 396 nerves. The third nerve, originating from its nucleus, travels through the red nucleus to a groove on the inner side of the crus called the oculo-motor groove, marking the boundary between the crusta and tegmentum. Above the Sylvian aqueduct is a layer called the lamina quadrigemina, which supports the corpora quadrigemina. The upper pair of these structures is partially hidden by the pineal body and contributes to lower visual centers. Connections can be traced to the optic tract, the higher visual center on the inner surface of the occipital lobe, the deep origin of the third or oculo-motor nerve, as well as to the mesial and lateral fillet. The lower pair of quadrigeminal bodies is more directly associated with hearing organs and connects via the lateral fillet to the cochlear nucleus of the auditory nerve.

Surface of the Brain.

Brain Surface

The peripheral part of each hemisphere, which consists of grey matter, exhibits a characteristic folded appearance, known as gyri (or convolutions) of the cerebrum. These gyri are separated from each other by fissures and sulci, some of which are considered to subdivide the hemisphere into lobes, whilst others separate the gyri in each lobe from each other. In each hemisphere of the human brain five lobes are recognized: the temporo-sphenoidal, frontal, parietal, occipital, and the central lobe or Island of Reil; it should, however, be realized that these lobes do not exactly correspond to the outlines of the bones after which they are named. Passing obliquely on the outer face of the hemisphere from before, upward and backward, is the well marked Sylvian fissure (fig. 9, s), which is the first to appear in the development of the hemisphere. Below it lies the temporo-sphenoidal lobe, and above and in front of it, the parietal and frontal lobes. As soon as it appears on the external surface of the brain the fissure divides into three limbs, anterior horizontal (s1), ascending (s2), and posterior horizontal (s3), the latter being by far the longest. The place whence these diverge is the Sylvian point and corresponds to the pterion on the surface of the skull (see Anatomy: Superficial and Artistic). Between these three limbs and the vallecula or main stem of the fissure are four triangular tongues or opercula; these are named, according to their position, orbital (fig. 9, C), frontal (pars triangularis) (B), fronto-parietal (pars basilaris) (A) and temporal. The frontal lobe is separated from the parietal by the fissure of Rolando (fig. 9, r) which extends on the outer face of the hemisphere from the longitudinal fissure obliquely downward and forward towards the Sylvian fissure. About 2 in. from the hinder end of the hemisphere is the parieto-occipital fissure, which, commencing at the longitudinal fissure, passes down the inner surface of the hemisphere, and transversely outwards for a short distance on the outer surface of the hemisphere; it separates the parietal and occipital lobes from each other.

The outer part of each hemisphere, made up of grey matter, has a distinctive folded look, known as gyri (or convolutions) of the cerebrum. These gyri are separated by fissures and sulci, with some dividing the hemisphere into lobes, while others separate the gyri within each lobe. Each hemisphere of the human brain contains five recognized lobes: the temporo-sphenoidal, frontal, parietal, occipital, and the central lobe or Island of Reil; however, it's important to note that these lobes don't precisely match the outlines of the bones they're named after. Strikingly marked on the outer surface of the hemisphere is the Sylvian fissure (fig. 9, s), which is the first to develop in the hemisphere. Below it is the temporo-sphenoidal lobe, while above and in front are the parietal and frontal lobes. Once it appears on the brain's surface, the fissure splits into three limbs: the anterior horizontal (s1), ascending (s2), and posterior horizontal (s3), with the latter being the longest. The point where these limbs diverge is called the Sylvian point and corresponds to the pterion on the skull's surface (see Anatomy: Superficial and Artistic). Between these three limbs and the vallecula or main stem of the fissure are four triangular areas called opercula; these are named based on their location: orbital (fig. 9, C), frontal (pars triangularis) (B), fronto-parietal (pars basilaris) (A), and temporal. The frontal lobe is separated from the parietal lobe by the fissure of Rolando (fig. 9, r), which runs on the outer surface of the hemisphere from the longitudinal fissure obliquely downward and forward toward the Sylvian fissure. About 2 in. from the back end of the hemisphere is the parieto-occipital fissure, which begins at the longitudinal fissure, goes down the inner surface of the hemisphere, and then transversely outward for a short distance on the outer surface of the hemisphere; it separates the parietal and occipital lobes from one another.

From Cunningham, *Textbook of Anatomy*.

Fig. 9.—Gyri and Sulci, on the outer surface of the Cerebral Hemisphere.

f1, Sulcus frontalis superior.

Sulcus frontalis superior.

f2, Sulcus frontalis inferior.

Sulcus frontalis inferior.

f.m, Sulcus frontalis medius.

f.m, Middle frontal sulcus.

p.m, Sulcus paramedialis.

p.m., Paramedial sulcus.

A, Pars basilaris.

A, basilar part.

B, Pars triangularis.

B, triangular pars.

C, Pars orbitalis.

C, orbital pars.

S, Sylvian fissure.

S, Sylvian groove.

s1, Anterior horizontal limb (Sylvian fissure).

s1, Front horizontal part (Sylvian fissure).

s2, Ascending limb (Sylvian fissure).

s2, Ascending limb (Sylvian groove).

s3. Posterior horizontal limb (Sylvian fissure).

s3. Back horizontal section (Sylvian fissure).

s.asc, Ascending terminal part of the posterior horizontal limb of the Sylvianfissure.

s.asc, The upward terminal section of the back horizontal part of the Sylvian fissure.

p.c.i, Inferior praecentral sulcus.

p.c.i, Lower praecentral sulcus.

p.c.s, Superior praecentral sulcus.

p.c.s, Superior praecentral sulcus.

r, Fissure of Rolando.

Fissure of Rolando.

g.s, Superior genu.

g.s, Superior knee.

g.i, Inferior genu.

g.i, inferior knee.

d, Sulcus diagonalis.

d, Diagonal sulcus.

t1, Superior temporal sulcus (parallel sulcus).

t1, Superior temporal sulcus (parallel sulcus).

t2, Inferior temporal sulcus.

t2, Inferior temporal groove.

p1, Inferior postcentral sulcus.

Inferior postcentral sulcus.

p2, Superior postcentral sulcus.

p2, Superior postcentral groove.

p3, Ramus horizontalis.

Ramus horizontalis.

p4, Ramus occipitalis.

p4, occipital ramus.

s.o.t, Sulcus occipitalis transversus.

, Transverse occipital sulcus.

occ. lat, Sulcus occipitalis lateralis (the sulcus lunatus of Elliot Smith).

occ. lat, Lateral occipital sulcus (the lunate sulcus of Elliot Smith).

c.m, Calloso-marginal sulcus.

c.m, Calloso-marginal groove.

c.t.r, Inferior transverse furrow.

c.t.r, Lower transverse groove.

Fig. 10.—Orbital surface of the left frontal lobe and the island of Reil; the tip of the temporo-sphenoidal lobe has been removed to display the latter.

17. Convolution of the margin of the longitudinal fissure.

17. Folding of the edge of the longitudinal groove.

O. Olfactory fissure, over which the olfactory peduncle and lobe are situated.

O. Olfactory fissure, above which the olfactory peduncle and lobe are located.

TR. Orbital sulcus.

Orbital sulcus.

1″ 1″′. Convolutions on the orbital suface.

1″ 1″′. Waves on the orbital surface.

1,1,1,1. Under surface of infero-frontal convolution.

1,1,1,1. Beneath the surface of the lower frontal gyrus.

4. Under surface of ascending frontal; and 5, of ascending parietal convolutions.

4. Under the surface of the ascending frontal lobe; and 5, of the ascending parietal convolutions.

C. Central lobe or insula.

C. Central lobe or insula.

The Temporo-Sphenoidal Lobe presents on the outer surface of the hemisphere three convolutions, arranged in parallel tiers from above downward, and named superior, middle and inferior temporal gyri. The fissure which separates the superior and middle of these convolutions is called the parallel fissure (fig. 9, t1). The Occipital Lobe also consists from above downwards of three parallel gyri, named superior, middle and inferior occipital. The Frontal Lobe is more complex; immediately in front of the fissure of Rolando, and forming indeed its anterior boundary, is a convolution named ascending frontal or pre-central, which ascends obliquely backward and upward from the Sylvian to the longitudinal fissure. Springing from the front of this gyrus, and passing forward to the anterior end of the cerebrum, are three gyri, arranged in parallel tiers from above downwards, and named superior, middle and inferior frontal gyri, which are also prolonged on to the orbital face of the frontal lobe. The Parietal Lobe is also complex; its most anterior gyrus, named ascending parietal or post-central, ascends parallel to and immediately behind the fissure of Rolando. Springing from the upper end of the back of this gyrus is the supra-parietal lobule, which, forming the boundary of the longitudinal fissure, extends as far back as the parieto-occipital fissure; springing from the lower end of the back of this gyrus is the supra-marginal, which forms the 397 upper boundary of the hinder part of the Sylvian fissure; as this gyrus occupies the hollow in the parietal bone, which corresponds to the eminence, it may appropriately be named the gyrus of the parietal eminence. Above and behind the gyrus of the parietal eminence is the angular gyrus, which bends round the posterior extremity of the parallel fissure, while arching over the hinder end of the inferior temporo-sphenoidal sulcus is the post-parietal gyrus. Lying in the parietal lobe is the intra-parietal fissure (fig. 9, p3 and p4), which separates the gyrus of the parietal eminence from the supra-parietal lobule.

The Temporo-Sphenoidal Lobe shows three convolutions on the outer surface of the hemisphere, arranged in parallel tiers from top to bottom, called superior, middle, and inferior temporal gyri. The fissure that divides the superior and middle convolutions is known as the parallel fissure (fig. 9, t1). The Occipital Lobe also consists of three parallel gyri from top to bottom, named superior, middle, and inferior occipital. The Frontal Lobe is more complex; right in front of the fissure of Rolando, and forming its anterior boundary, is a convolution called ascending frontal or pre-central, which slopes obliquely backward and upward from the Sylvian to the longitudinal fissure. From the front of this gyrus, three gyri extend forward to the front end of the cerebrum, arranged in parallel tiers from top to bottom, named superior, middle, and inferior frontal gyri, which also continue onto the orbital face of the frontal lobe. The Parietal Lobe is also complex; its most anterior gyrus, known as ascending parietal or post-central, rises parallel to and immediately behind the fissure of Rolando. Emerging from the upper end of the back of this gyrus is the supra-parietal lobule, which forms the boundary of the longitudinal fissure and extends back to the parieto-occipital fissure; coming from the lower end of the back of this gyrus is the supra-marginal, which forms the 397 upper boundary of the back part of the Sylvian fissure; as this gyrus sits in the hollow of the parietal bone corresponding to the eminence, it can appropriately be referred to as the gyrus of the parietal eminence. Above and behind the gyrus of the parietal eminence is the angular gyrus, which curves around the back end of the parallel fissure, while the post-parietal gyrus arches over the back end of the inferior temporo-sphenoidal sulcus. Inside the parietal lobe is the intra-parietal fissure (fig. 9, p3 and p4), which separates the gyrus of the parietal eminence from the supra-parietal lobule.

The Central Lobe of the hemisphere, more usually called the insula or island of Reil, does not come to the surface of the hemisphere, but lies deeply within the Sylvian fissure, the opercula forming the margin of which, conceal it. It consists of four or five short gyri, which radiate from the locus perforatus anticus, situated at the inner end of the fissure. This lobe is almost entirely surrounded by a deep sulcus called the limiting sulcus of Reil, which insulates it from the adjacent gyri. It lies opposite the upper part of the ali-sphenoid, where it articulates with the parietal and squamous-temporal.

The Central Lobe of the hemisphere, more commonly known as the insula or island of Reil, doesn't reach the surface of the hemisphere but is located deep within the Sylvian fissure, with the opercula forming the margins that hide it. It consists of four or five short gyri that radiate from the locus perforatus anticus, found at the inner end of the fissure. This lobe is almost completely surrounded by a deep sulcus called the limiting sulcus of Reil, which isolates it from the surrounding gyri. It is located opposite the upper part of the ali-sphenoid, where it connects with the parietal and squamous-temporal bones.

In front of the central lobe, on the base of the brain, are the orbital gyri, which are separated from one another by the orbital sulcus. This is usually H-shaped, and the gyri are therefore anterior, posterior, external and internal. Bisecting the internal orbital gyrus is an antero-posteripr sulcus (s. rectus), beneath which lies the olfactory lobe, bulbous in front, for the olfactory nerves to arise from.

In front of the central lobe, at the base of the brain, are the orbital gyri, which are separated from each other by the orbital sulcus. This is usually H-shaped, and the gyri are categorized as anterior, posterior, external, and internal. Cutting through the internal orbital gyrus is an antero-posterior sulcus (s. rectus), underneath which sits the olfactory lobe, bulbous at the front, from which the olfactory nerves emerge.

On the mesial surface of the hemisphere, as seen when the brain is longitudinally bisected and the cerebellum and medulla removed by cutting through the crus cerebri (see fig. 11), the divided corpus callosum is the most central object, while below it are seen the fornix, septum lucidum and third ventricle, the description of which will follow. The cerebral surface, above and in front of the corpus callosum, is divided into two by a sulcus, the contour of which closely resembles that of the upper margin of the corpus callosum. This is the calloso-marginal sulcus, so called because it separates the callosal gyrus, which lies between it and the corpus callosum, from the marginal gyri nearer the margin of the brain. When the sulcus reaches a point vertically above the hind end of the corpus callosum it turns sharply upward and so forms the hinder limit of the marginal gyri, the posterior inch or two of which is more or less distinctly marked off to form the paracentral lobule, where the upper part of the central fissure of Rolando turns over the margin of the brain. The callosal gyrus, which is also called the gyrus fornicatus from its arched appearance, is continued backward round the posterior end of the corpus callosum, and so to the mesial surface of the temporal lobe. Behind the upturned end of the calloso-marginal sulcus there is a square area which is called the precuneus or quadrate lobe; it is bounded behind by the deeply cut internal parieto-occipital fissure and this runs from the margin of the brain downward and forward to join another fissure, the calcarine, at an acute angle, thus enclosing a wedge-shaped piece of brain called the cuneus between them. The calcarine fissure is fairly horizontal, and is joined about its middle by the internal parieto-occipital, so that the part in front of the junction is called the pre-calcarine, and that behind the post-calcarine fissure. The internal parieto-occipital and calcarine are real fissures, because they cause an elevation in the interior of the brain, known as the hippocampus minor. Just in front of the anterior end of the calcarine fissure the callosal gyrus is constricted to form the isthmus which connects it with the hippocampal or uncinate gyrus. Below the calcarine fissure is a gyrus called the gyrus lingualis, and this is bounded below by another true fissure, the collateral, which runs parallel to the calcarine, but is continued much farther forward into the temporal lobe and so forms the lower boundary of the hippocampal gyrus. It will thus be seen that the hippocampal gyrus is continuous posteriorly with the callosal gyrus above by means of the isthmus, and with the gyrus lingualis below. The hippocampal gyrus is bounded above by the dentate or hippocampal fissure which causes the hippocampus major in the descending cornu and so is a complete fissure. If its lips are separated the fascia dentata or gyrus dentatus and the fimbria continued from the posterior pillar of the fornix are seen. Anteriorly the fissure is arrested by the recurved process of the upper part of the hippocampal gyrus, called the uncus, and in front of this a slight sulcus, the incisura temporalis, marks off the temporal pole or tip of the temporal lobe from the region of the uncus. It will be seen that the callosal gyrus, isthmus, and hippocampal gyrus form nearly a complete ring, and to this the name of limbic lobe is given.

On the inner surface of the brain hemisphere, as viewed when the brain is cut lengthwise and the cerebellum and medulla are removed by cutting through the crus cerebri (see fig. 11), the split corpus callosum is the most central structure. Below it, you can see the fornix, septum lucidum, and third ventricle, which will be described later. The cerebral surface, above and in front of the corpus callosum, is divided into two by a groove, which closely resembles the upper edge of the corpus callosum. This is called the calloso-marginal sulcus because it separates the callosal gyrus, located between it and the corpus callosum, from the marginal gyri closer to the edge of the brain. When the sulcus reaches a point directly above the back end of the corpus callosum, it sharply turns upward, forming the back boundary of the marginal gyri, with the last inch or two distinctly marked off to create the paracentral lobule, where the upper part of the central fissure of Rolando crosses over the brain's edge. The callosal gyrus, also known as the gyrus fornicatus due to its arched shape, extends backward around the back end of the corpus callosum and continues to the inner surface of the temporal lobe. Behind the turned-up end of the calloso-marginal sulcus is a square area called the precuneus or quadrate lobe; it is bounded behind by the deeply cut internal parieto-occipital fissure, which runs from the edge of the brain downward and forward, joining another fissure, the calcarine, at a sharp angle, thus enclosing a wedge-shaped section of the brain known as the cuneus between them. The calcarine fissure is relatively horizontal and is joined about its midpoint by the internal parieto-occipital fissure, making the area in front of this junction the pre-calcarine and the area behind it the post-calcarine fissure. The internal parieto-occipital and calcarine are true fissures, as they create an elevation in the brain's interior known as the hippocampus minor. Just in front of the front end of the calcarine fissure, the callosal gyrus narrows to form the isthmus, which connects it to the hippocampal or uncinate gyrus. Below the calcarine fissure is a gyrus called the gyrus lingualis, which is bounded below by another true fissure, the collateral, that runs parallel to the calcarine but extends much further forward into the temporal lobe, forming the lower boundary of the hippocampal gyrus. This shows that the hippocampal gyrus is connected at the back to the callosal gyrus above through the isthmus and to the gyrus lingualis below. The hippocampal gyrus is bounded above by the dentate or hippocampal fissure, which creates the hippocampus major in the descending cornu and is a complete fissure. If its edges are separated, the fascia dentata or gyrus dentatus and the fimbria extending from the back pillar of the fornix become visible. Anteriorly, the fissure is interrupted by the curved process of the upper part of the hippocampal gyrus, known as the uncus, and a slight sulcus, the incisura temporalis, separates the temporal pole or tip of the temporal lobe from the area of the uncus. Thus, it can be seen that the callosal gyrus, isthmus, and hippocampal gyrus almost form a complete ring, which is referred to as the limbic lobe.

Interior of the Cerebrum.

Inside the Brain.

If a horizontal slice be removed from the upper part of each hemisphere (see fig. 12), the peripheral grey matter of the gyri will be seen to follow their various windings, whilst the core of each gyrus consists of white matter continuous with a mass of white matter in the interior of the hemisphere. If a deeper slice be now made down to the plane of the corpus callosum, the white matter of that structure will be seen to be continuous with the white centre of each hemisphere known as the centrum ovale. The corpus callosum does not equal the hemispheres in length, but approaches nearer to their anterior than their posterior ends. It terminates behind in a free rounded end, named the splenium (see fig. 11), whilst in front it forms a knee-shaped bend, and passes downwards and backwards as far as the lamina cinerea. If the dissection be performed on a brain which has been hardened in spirit, the corpus callosum is seen to consist almost entirely of bundles of nerve fibres, passing transversely across the mesial plane between the two hemispheres; these fibres may be traced into the white cores and grey matter of the gyri, and connect the gyri, though by no means always corresponding ones, in the opposite hemispheres. Hence the corpus callosum is a connecting or commissural structure, which brings the gyri of the two hemispheres into anatomical and physiological relation with each other. On the surface of the corpus callosum a few fibres, the striae longitudinales, run in the antero-posterior or longitudinal direction (see fig. 12, b). Their morphological interest is referred to in the section below on Comparative Anatomy. In the sulcus between the corpus callosum and the limbic lobe a narrow band of fibres called the cingulum is seen, most of its fibres only run a short distance in it and link together adjacent parts of the brain. If the corpus callosum be now cut through on each side of its mesial line, the large cavity or lateral ventricle in each hemisphere will be opened into.

If you remove a horizontal slice from the upper part of each hemisphere (see fig. 12), you will see that the outer grey matter of the gyri follows their various shapes, while the center of each gyrus consists of white matter that connects with a mass of white matter inside the hemisphere. If you then make a deeper cut down to the plane of the corpus callosum, you will find that the white matter of this structure is continuous with the white center of each hemisphere, known as the centrum ovale. The corpus callosum isn’t as long as the hemispheres but is closer to their front ends than to the back. It ends in a free rounded part called the splenium (see fig. 11), while at the front it bends into a knee shape and extends downward and backward to the lamina cinerea. If the dissection is done on a brain hardened in alcohol, the corpus callosum will mainly consist of bundles of nerve fibers that run transversely across the middle between the two hemispheres; these fibers can be traced into the white centers and grey matter of the gyri and connect gyri in opposite hemispheres, although they rarely connect the same gyri. Therefore, the corpus callosum serves as a linking or commissural structure, connecting the gyri of both hemispheres anatomically and physiologically. On the surface of the corpus callosum, a few fibers, known as the striae longitudinales, run in the front-to-back or longitudinal direction (see fig. 12, b). Their morphological significance is discussed in the section below on Comparative Anatomy. In the groove between the corpus callosum and the limbic lobe, you can see a narrow band of fibers called the cingulum, most of which only run a short distance and connect adjacent parts of the brain. If you cut through the corpus callosum on either side of its midline, the large cavity or lateral ventricle in each hemisphere will be exposed.

From Cunningham, Text-The Book of Anatomy.

Fig. 11.—The Gyri and Sulci on the Mesial Aspect of the Cerebral Hemisphere, r, Fissure of Rolando. r, o, Rostral sulcus. i, t, Incisura temporalis.

The lateral ventricle is subdivided into a central space or body, and three bent prolongations or cornua; the anterior cornu extends forward, outward and downward into the frontal lobe; the posterior cornu curves backward, outward and inward into the occipital lobe; 398 the descending cornu curves backward, outward, downward, forward and inward, behind and below the optic thalamus into the temporo-sphenoidal lobe. On the floor of the central space may be seen from before backward the grey upper surface of the pear-shaped caudate nucleus of the corpus striatum (figs. 12 and 13, f), and to its inner and posterior part a small portion of the optic thalamus, whilst between the two is the curved flat band, the taenia semicircularis (figs. 12 and 13, g). Resting on the upper surface of the thalamus is the vascular fringe of the velum interpositum, named choroid plexus, and immediately internal to this fringe is the free edge of the white posterior pillar of the fornix. The anterior cornu has the anterior end of the corpus striatum projecting into it. The posterior cornu has an elevation on its floor, the hippocampus minor (fig. 12, n), and between this cornu and the descending cornu is the elevation called eminentia collateralis, formed by the collateral fissure (fig. 12, o).

The lateral ventricle is divided into a central space or body, and three bent extensions called cornua; the anterior cornu extends forward, outward, and downward into the frontal lobe; the posterior cornu curves backward, outward, and inward into the occipital lobe; 398 the descending cornu curves backward, outward, downward, forward, and inward, behind and below the optic thalamus into the temporo-sphenoidal lobe. On the floor of the central space, you can see from front to back the gray upper surface of the pear-shaped caudate nucleus of the corpus striatum (figs. 12 and 13, f), and to its inner and back part, a small portion of the optic thalamus, with the curved flat band, the taenia semicircularis positioned between the two (figs. 12 and 13, g). Resting on the top surface of the thalamus is the vascular fringe of the velum interpositum, called the choroid plexus, and just inside this fringe is the free edge of the white posterior pillar of the fornix. The anterior cornu has the front end of the corpus striatum projecting into it. The posterior cornu has an elevation on its floor, the hippocampus minor (fig. 12, n), and between this cornu and the descending cornu is the elevation known as eminentia collateralis, formed by the collateral fissure (fig. 12, o).

Fig. 12.—To show the Right Ventricle and the left half of the Corpus Callosum.

a, Transverse fibres, and

a, Transverse fibers, and

b, Longitudinal fibres of corpus callosum.

b, Long fibers of the corpus callosum.

c, Anterior, and

c, Front, and

d, Posterior cornua of lateral ventricle.

d, Posterior horns of the lateral ventricle.

e, Septum lucidum.

e, Septum lucidum.

f, Corpus striatum.

Corpus striatum.

g, Taenia semicircularis.

g, Taenia semicircularis.

h, Optic thalamus.

Optic thalamus.

k, Choroid plexus.

Choroid plexus.

l, Taenia hippocampi.

l, Taenia hippocampi.

m, Hippocampus major.

m, Hippocampus major.

n, Hippocampus minor.

n, Hippocampus minor.

o, Eminentia collateralis.

o, Collateral Eminence.

Extending down the descending cornu and following its curvature is the hippocampus major, which terminates below in a nodular end, the pes hippocampi; on its inner border is the white taenia hippocampi, continuous above with the posterior pillar of the fornix. If the taenia be drawn to one side the hippocampal fissure is exposed, at the bottom of which the grey matter of the gyrus hippocampi may be seen to form a well-defined dentated border (the so-called fascia dentala). The choroid plexus of the pia mater turns round the gyrus hippocampi, and enters the descending cornu through the lateral part of the great transverse fissure between the taenia hippocampi and optic thalamus. The lateral ventricle is lined by a ciliated epithelium called the ependyma. This lining is continuous through the foramen of Monro with that of the third ventricle, which again is continuous with the lining of the fourth ventricle through the aqueduct of Sylvius. A little fluid is contained in the cerebral ventricles, which, under some pathological conditions, may increase greatly in quantity, so as to occasion considerable dilatation of the ventricular cavities.

Extending down the descending cornu and following its curve is the hippocampus major, which ends below in a rounded tip, the pes hippocampi; along its inner edge is the white taenia hippocampi, which connects above to the posterior pillar of the fornix. If the taenia is pulled to one side, the hippocampal fissure is revealed, where the grey matter of the gyrus hippocampi forms a clear, serrated border (the so-called fascia dentata). The choroid plexus of the pia mater wraps around the gyrus hippocampi and enters the descending cornu through the lateral part of the large transverse fissure between the taenia hippocampi and optic thalamus. The lateral ventricle is lined with a ciliated epithelium called the ependyma. This lining continues through the foramen of Monro into the third ventricle, which then connects to the lining of the fourth ventricle through the aqueduct of Sylvius. A small amount of fluid is found in the cerebral ventricles, which, under certain pathological conditions, can significantly increase in volume, causing considerable dilation of the ventricular cavities.

If the corpus callosum be now divided about its middle by a transverse incision, and the posterior half of this structure be turned back (see fig. 13), the body of the fornix on which the corpus callosum rests is exposed. If the anterior half of the corpus callosum be now turned forward, the grey partition, or septum lucidum, between the two lateral ventricles is exposed. This septum fits into the interval between the under surface of the corpus callosum and the upper surface of the anterior part of the fornix. It consists of two layers of grey matter, between which is a narrow vertical mesial space, the fifth ventricle (fig. 13, e), and this space does not communicate with the other ventricles nor is it lined with ependyma. If the septum be now removed, the anterior part of the fornix is brought into view.

If you cut the corpus callosum in half horizontally and pull back the back half (see fig. 13), you can see the body of the fornix that the corpus callosum sits on. If you then pull the front half of the corpus callosum forward, you'll expose the grey partition, or septum lucidum, between the two lateral ventricles. This septum fits into the space between the bottom of the corpus callosum and the top of the front part of the fornix. It has two layers of grey matter with a narrow vertical middle space between them, called the fifth ventricle (fig. 13, e), and this space doesn't connect to the other ventricles and isn't lined with ependyma. If you remove the septum, the front part of the fornix becomes visible.

The fornix is an arch-shaped band of nerve fibres extending in the antero-posterior direction. Its anterior end forms the anterior pillars of the arch, its posterior end the posterior pillars, whilst the intermediate body of the fornix forms the crown of the arch. It consists of two lateral halves, one belonging to each hemisphere. At the summit of the arch the two lateral halves are joined to form the body; but in front the two halves separate from each other, and form two anterior pillars, which descend in front of the third ventricle to the base of the cerebrum, where they form the corpora albicantia, and from these some white fibres called the bundle of Vicq d’Azyr ascend to the optic thalamus (see fig. 11). Behind the body the two halves diverge much more from each other, and form the posterior pillars, in the triangular interval between which is a thin lamina of commissural fibres called the lyra (fig. 13, a). Each posterior pillar curves downward and outward into the descending cornu of the ventricle, and, under the name of taenia hippocampi, forms the mesial free border of the hippocampus major (fig. 13, l). Eventually it ends in the substance of the hippocampus and in the uncus of the temporal lobe. If the body of the fornix be now divided by a transverse incision, its anterior part thrown forward, and its posterior part backward, the great transverse fissure of the cerebrum is opened into, and the velum interpositum lying in that fissure is exposed.

The fornix is a curved band of nerve fibers that runs from front to back. Its front end forms the anterior pillars of the arch, while its back end creates the posterior pillars, and the middle section, known as the body, makes up the top of the arch. It has two sides, one for each hemisphere of the brain. At the top of the arch, these two sides come together to create the body; however, at the front, the two sides separate and form two anterior pillars that go down in front of the third ventricle to the base of the cerebrum, where they turn into the corpora albicantia. From there, some white fibers called the bundle of Vicq d’Azyr travel up to the optic thalamus (see fig. 11). Behind the body, the two sides spread apart more and form the posterior pillars, with a thin layer of connecting fibers called the lyra in the triangular space between them (fig. 13, a). Each posterior pillar curves down and out into the descending cornu of the ventricle and, under the name taenia hippocampi, forms the inner free edge of the hippocampus major (fig. 13, l). Ultimately, it ends within the hippocampus and the uncus of the temporal lobe. If the body of the fornix is cut across, moving the front part forward and the back part backward, it reveals the large transverse fissure of the cerebrum, exposing the velum interpositum located in that fissure.

The velum interpositum is an expanded fold of pia mater, which passes into the anterior of the hemispheres through the great transverse fissure. It is triangular in shape; its base is a line with the posterior end of the corpus callosum, where it is continuous with the external pia mater; its lateral margins are fringed by the choroid plexuses, which are seen in the bodies and descending cornua of the lateral ventricles, where they are invested by the endothelial lining of those cavities. Its apex, where the two choroid plexuses blend with each other, lies just behind the anterior pillars of the fornix. The interval between the apex and these pillars is the aperture of communication between the two lateral ventricles and the third, already referred to as the foramen of Monro. The choroid plexuses contain the small choroidal arteries; and the blood from these is returned by small veins, which join to form the veins of Galen. These veins pass along the centre of the velum, and, as is shown in fig. 1, open into the straight sinus. If the velum interpositum be now carefully raised from before backward, the optic thalami, third ventricle, pineal body and corpora quadrigemina are exposed.

The velum interpositum is an extended fold of pia mater that extends into the front of the hemispheres through the large transverse fissure. It has a triangular shape; its base is aligned with the back end of the corpus callosum, where it connects with the external pia mater. The sides are bordered by the choroid plexuses, which can be seen in the bodies and descending cornua of the lateral ventricles, where they are covered by the endothelial lining of those cavities. Its tip, where the two choroid plexuses merge, is located just behind the front pillars of the fornix. The space between the tip and these pillars is the opening that connects the two lateral ventricles to the third, commonly known as the foramen of Monro. The choroid plexuses contain the small choroidal arteries; blood from these drains through small veins that come together to form the veins of Galen. These veins run along the center of the velum and, as shown in fig. 1, drain into the straight sinus. If the velum interpositum is carefully lifted from front to back, the optic thalami, third ventricle, pineal body, and corpora quadrigemina are revealed.

Fig. 13.—A deeper dissection of the Lateral Ventricle, and of the Velum Interpositum.

a, Lyra, turned back.

a, Lyra, looked back.

b, b, Posterior pillars of the fornix, turned back.

b, b, The back supports of the fornix have been turned back.

c, c, Anterior pillars of the fornix.

c, c, Front pillars of the fornix.

d, Velum interpositum and veins of Galen.

d, Velum interposed and the veins of Galen.

e, Fifth ventricle.

e, fifth ventricle.

f, f, Corpus striatum.

Corpus striatum.

g, g, Taenia semicircularis.

g, g, Taenia semicircularis.

h, h, Optic thalamus.

Optic thalamus.

k, Choroid plexus.

Choroid plexus.

l, Taenia hippocampi.

l, Taenia hippocampi.

m, Hippocampus major in descending cornu.

m, Hippocampus major in the descending horn.

n, Hippocampus minor.

n, Hippocampus minor.

o, Eminentia collateralis.

o, Eminentia collateral.

The optic thalamus is a large, somewhat ovoid body situated behind the corpus striatum, and above the crus cerebri. Its upper surface is partly seen in the floor of the body of the lateral ventricle, but is for the most part covered by the fornix and velum interpositum. Its postero-inferior surface forms the roof of the descending cornu 399 of the ventricle, whilst its inner surface forms the side wall of the third ventricle. At its outer and posterior part are two slight elevations, in close relation to the optic tract, and named respectively corpus geniculatum internum and externum.

The optic thalamus is a large, somewhat oval structure located behind the corpus striatum and above the crus cerebri. Its upper surface can be partly seen in the floor of the lateral ventricle, but is mostly covered by the fornix and velum interpositum. Its back and lower surface makes up the roof of the descending horn of the ventricle, while its inner surface forms the side wall of the third ventricle. At its outer and back parts, there are two small elevations that are closely related to the optic tract, called the corpus geniculatum internum and externum, respectively.

The posterior knob-like extremity of the thalamus is called the pulvinar; this, as well as the two corpora geniculata and the superior corpus quadrigeminum, is connected with the optic tract.

The back knob-like end of the thalamus is called the pulvinar; this, along with the two corpora geniculata and the upper corpus quadrigeminum, is connected to the optic tract.

The third ventricle (see fig. 6) is a cavity situated in the mesial plane between the two optic thalami. Its roof is formed by the velum interpositum and body of the fornix; its floor by the posterior perforated space, corpora albicantia, tuber cinereum, infundibulum, and optic commissure; its anterior boundary by the anterior pillars of the fornix, anterior commissure and lamina cinerea; its posterior boundary by the corpora quadrigemina and posterior commissure. The cavity of this ventricle is of small size in the living head, for the inner surfaces of the two thalami are connected together by intermediate grey matter, named the middle or soft commissure. Immediately in front of the corpora quadrigemina, the white fibres of the posterior commissure pass across between the two optic thalami. If the anterior pillars of the fornix be separated from each other, the white fibres of the anterior commissure may be seen lying in front of them.

The third ventricle (see fig. 6) is a cavity located in the midline between the two optic thalami. Its roof is made up of the velum interpositum and the body of the fornix; its floor consists of the posterior perforated space, corpora albicantia, tuber cinereum, infundibulum, and optic commissure; its front boundary is formed by the anterior pillars of the fornix, anterior commissure, and lamina cinerea; and its back boundary is defined by the corpora quadrigemina and posterior commissure. This ventricle’s cavity is quite small in a living person because the inner surfaces of the two thalami are joined by a strip of grey matter called the middle or soft commissure. Just in front of the corpora quadrigemina, the white fibers of the posterior commissure cross between the two optic thalami. If the anterior pillars of the fornix are pulled apart, the white fibers of the anterior commissure can be seen located in front of them.

From Cunningham, Textbook of Anatomy.

Fig. 14.—Horizontal Section through the Right Cerebral Hemisphere at the Level of the Widest Part of the Lenticular Nucleus.

The pineal body is a reddish cone-shaped body situated upon the anterior pair of the corpora quadrigemina (see figs. 3 and 6). From its broad anterior end two white bands, the peduncles of the pineal body, pass forward, one on the inner side of each optic thalamus. Each peduncle joins, along with the taenia semicircularis, the anterior pillar of the fornix of its own side. In its structure this body consists of tubular gland tissue containing gritty calcareous particles, constituting the brain sand. Its morphology will be referred to later.

The pineal body is a reddish, cone-shaped structure located on the front part of the corpora quadrigemina (see figs. 3 and 6). From its wide front end, two white bands called the peduncles of the pineal body extend forward, one on the inner side of each optic thalamus. Each peduncle connects, along with the taenia semicircularis, to the front pillar of the fornix on its respective side. Structurally, this body is made up of tubular gland tissue that contains gritty, calcareous particles known as brain sand. Its shape will be discussed later.

A general idea of the internal structure of the brain is best obtained by studying a horizontal section made just below the level of the Sylvian point and just above the great transverse fissure (see fig. 14). Such a section will cut the corpus callosum anteriorly at the genu and posteriorly at the splenium, but the body is above the plane of section. Behind the genu the fifth ventricle is cut, and behind that the two pillars of the fornix which here form the anterior boundary of the third ventricle. At the posterior end of this is the pineal body, which the section has just escaped. To the outer side of the fornix is seen the foramen of Munro, leading into the front of the body and anterior horn of the lateral ventricle. It will be seen that the lateral boundary of this horn is the cut caudate nucleus of the corpus striatum, while the lateral boundary of the third ventricle is the cut optic thalamus, both of which bodies have been already described, but external to these is a third triangular grey mass, with its apex directed inward, which cannot be seen except in a section. This is the lenticular nucleus of the corpus striatum, the inner or apical half of which is of a light colour and is called the globus pallidus, while the basal half is reader and is known as the putamen. External to the putamen is a long narrow strip of grey matter called the claustrum, which is sometimes regarded as a third nucleus of the corpus striatum. These masses of grey matter, taken together, are the basal nuclei of the brain. Internal to the lenticular nucleus, and between it and the caudate nucleus in front and the thalamus behind, is the internal capsule, through which run most of the fibres connecting the cerebral cortex with the crus cerebri. The capsule adapts itself to the contour of the lenticular nucleus and has an anterior limb, a bend or genu, and a posterior limb. Just behind the genu of the internal capsule is a very important region, for here the great motor tract from the Rolandic region of the cortex passes on its way to the crusta and spinal cord. Besides this there are fibres passing from the cortex to the deep origins of the facial and hypo-glossal nerves. Behind the motor tracts are the sensory, including the fillet, the superior cerebellar peduncle and the inferior quadrigeminal tract, while quite at the back of the capsule are found the auditory and optic radiations linking up the higher (cortical) and lower auditory and visual centres. Between the putamen and the claustrum is the external capsule, which is smaller and of less importance than the internal, while on the lateral side of the claustrum is the white and then the grey matter of the central lobe. As the fibres of the internal capsule run up toward the cortex they decussate with the transverse fibres of the corpus callosum and spread out to form the corona radiata. It has only been possible to deal with a few of the more important bundles of fibres here, but it should be mentioned that much of the white matter of the brain is formed of association fibres which link up different cortical areas, and which become medullated and functional after birth.

A general understanding of the brain's internal structure is best gained by examining a horizontal section taken just below the Sylvian point and just above the great transverse fissure (see fig. 14). This section will intersect the corpus callosum in the front at the genu and in the back at the splenium, while the body remains above the section plane. Behind the genu, the fifth ventricle is cut, followed by the two pillars of the fornix, which form the front boundary of the third ventricle. At the back end of this ventricle is the pineal body, which the section just misses. To the side of the fornix, you'll see the foramen of Munro, leading into the front of the body and anterior horn of the lateral ventricle. The lateral boundary of this horn is the cut caudate nucleus of the corpus striatum, and the lateral boundary of the third ventricle is the cut optic thalamus; both have been described already. Besides these, there's a third triangular mass of grey matter with its apex pointing inward, which can only be seen in a section. This is the lenticular nucleus of the corpus striatum, with the inner or apical part being lighter in color and called the globus pallidus, while the basal half is darker and known as the putamen. Outside the putamen is a long narrow strip of grey matter called the claustrum, sometimes considered a third nucleus of the corpus striatum. Together, these grey matter structures make up the basal nuclei of the brain. Inside the lenticular nucleus and between it and the caudate nucleus at the front and the thalamus at the back lies the internal capsule, through which most of the fibers connecting the cerebral cortex with the crus cerebri travel. The capsule takes on the shape of the lenticular nucleus and has an anterior limb, a bend or genu, and a posterior limb. Just behind the genu of the internal capsule is a crucial area, as this is where the major motor pathway from the Rolandic region of the cortex travels to the crusta and spinal cord. In addition, there are fibers moving from the cortex to the deep origins of the facial and hypoglossal nerves. Behind the motor pathways are the sensory fibers, including the fillet, the superior cerebellar peduncle, and the inferior quadrigeminal tract. At the very back of the capsule, you'll find the auditory and optic radiations connecting the higher (cortical) and lower auditory and visual centers. Between the putamen and the claustrum is the external capsule, which is smaller and less significant than the internal capsule. On the outer side of the claustrum are the white and then the grey matter of the central lobe. As the fibers of the internal capsule move up toward the cortex, they cross over with the transverse fibers of the corpus callosum and spread out to form the corona radiata. Here, only some of the more important fiber bundles have been addressed, but it’s worth mentioning that much of the brain's white matter consists of association fibers that connect different cortical areas and become myelinated and functional after birth.

Weight of the Brain.

Brain Weight.

This has been the subject of a great deal of research, but the results are not altogether conclusive; it seems, however, that, although the male brain is 4 to 5 oz. heavier than that of the female, its relative weight to that of the body is about the same in the two sexes. An average male brain weighs about 48 oz. and a female 43½ oz. The greatest absolute weight is found between twenty-five and thirty-five years of age in the male and a little later in the female. At birth the brain weighs comparatively much more than it does later on, its proportion to the body weight being about 1 to 6. At the tenth year it is about 1 to 14, at the twentieth 1 to 30, and after that about 1 to 36.5. In old age there is a further slight decrease in proportion. In many men of great intellectual eminence the brain weight has been large—Cuvier’s brain weighed 64½ oz., Goodsir’s 57½, for instance—but the exceptions are numerous. Brains over 60 oz. in weight are frequently found in quite undistinguished people, and even in idiots 60 oz. has been recorded. On the other hand, microcephalic idiots may have a brain as low as 10 or even 8½ oz., but it is doubtful whether normal intelligence is possible with a brain weighing less than 32 oz. The taller the individual the greater is his brain weight, but short people have proportionally heavier brains than tall. The weight of the cerebellum is usually one-eighth of that of the entire brain. Attempts have been made to estimate the surface area of the grey matter by dissecting it off and measuring it, and also by covering it with gold leaf and measuring that. The results, however, have not been conclusive.

This has been studied extensively, but the findings aren't completely clear; however, it seems that although the male brain is 4 to 5 ounces heavier than the female brain, its relative weight to body size is about the same for both sexes. An average male brain weighs about 48 ounces, while a female brain weighs about 43.5 ounces. The heaviest brain weight is typically found in males between the ages of twenty-five and thirty-five, and a bit later in females. At birth, the brain weighs relatively more than it does as a person ages, with a body weight ratio of about 1 to 6. By the age of ten, this ratio is approximately 1 to 14; at twenty, it's 1 to 30, and after that, it’s about 1 to 36.5. In older age, there’s a slight decrease in this proportion. Many men of notable intellectual achievement have had large brains—Cuvier’s brain weighed 64.5 ounces, and Goodsir’s weighed 57.5 ounces, for example—but there are many exceptions. Brains weighing over 60 ounces are often found in completely average individuals, and even in people classified as idiots, weights of 60 ounces have been recorded. Conversely, microcephalic individuals may have brains weighing as little as 10 or even 8.5 ounces, but it’s questionable whether normal intelligence can exist with a brain weighing less than 32 ounces. Generally, the taller a person is, the heavier their brain tends to be, but shorter people usually have proportionally heavier brains than taller ones. The cerebellum typically weighs about one-eighth of the entire brain. Attempts to estimate the surface area of the gray matter through dissection and measurement, as well as by coating it with gold leaf and measuring that, have not yielded conclusive results.

Further details of the brain, abundantly illustrated, will be found in the later editions of any of the standard text-books on anatomy, references to which will be found in the article on Anatomy: Modern Human. Das Menschenhirn, by G. Retzius (Stockholm, 1896), and numerous recent memoirs by G. Elliot Smith and D.J. Cunningham in the Journ. Anat. and Phys. and Anatomisch Anzeig., may be consulted.

Further details about the brain, richly illustrated, can be found in the later editions of any of the standard anatomy textbooks. References to these can be seen in the article on Anatomy: Modern Human. Das Menschenhirn, by G. Retzius (Stockholm, 1896), along with numerous recent papers by G. Elliot Smith and D.J. Cunningham in the Journ. Anat. and Phys. and Anatomisch Anzeig..

Histology of Cerebral Cortex.

Cerebral Cortex Histology.

The cerebral cortex (see fig. 15) consists of a continuous sheet of grey matter completely enveloping the white matter of the hemispheres. It varies in thickness in different parts, and becomes thinner in old age, but all parts show a somewhat similar microscopic structure. Thus, in vertical section, the following layers may be made out:—

The cerebral cortex (see fig. 15) is a continuous layer of gray matter that completely surrounds the white matter of the hemispheres. Its thickness varies in different areas and becomes thinner with age, but all parts have a generally similar microscopic structure. In a vertical section, the following layers can be identified:—

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1. The Molecular Layer (Stratum zonale).—This is made up of a large number of fine nerve branchings both medullated and non-medullated. The whole forms a close network, the fibres of which run chiefly a tangential course. The cells of this layer are the so-called cells of Cajal. They possess an irregular body, giving off 4 or 5 dendrites, which terminate within the molecular layer and a long nerve fibre process or neuraxon which runs parallel to the surface of the convolution.

1. The Molecular Layer (Stratum zonale).—This layer consists of many fine nerve branches, both myelinated and unmyelinated. Together, they create a dense network where the fibers primarily run tangentially. The cells in this layer are known as the cells of Cajal. They have an irregular shape and extend 4 or 5 dendrites that end within the molecular layer, along with a long nerve fiber process or axon that runs parallel to the surface of the convolution.

2. The Layer of small Pyramidal Cells.—The typical cells of this layer are pyramid-shaped, the apices of the pyramids being directed towards the surface. The apex terminates in a dendron which reaches into the molecular layer, giving off several collateral horizontal branches in its course. The final branches in the molecular layer take a direction parallel to the surface. Smaller dendrites arise from the lateral and basal surfaces of these cells, but do not extend far from the body of the cell. The neuraxon always arises from the base of the cell and passes towards the central white matter, thus forming one of the nerve-fibres of that substance. In its path it gives off a number of collaterals at right angles, which are distributed to the adjacent grey matter.

2. The Layer of Small Pyramidal Cells.—The typical cells in this layer are pyramid-shaped, with their tips pointing towards the surface. The tip ends in a dendrite that extends into the molecular layer, branching off several horizontal side branches along the way. The final branches in the molecular layer run parallel to the surface. Smaller dendrites emerge from the sides and bottom of these cells but don’t reach far from the cell body. The axon always starts from the base of the cell and moves toward the central white matter, forming one of the nerve fibers in that area. Along its path, it sends off several side branches at right angles, which are directed to the nearby grey matter.

From Cunningham, *Textbook of Anatomy*.

Fig. 15.—Diagram to illustrate Minute Structure of the Cerebral Cortex.

A. Neuroglia cells.

A. Glial cells.

B.    ”    ”

B.    ”    ”

C. Cell with short axon (N) which breaks up in a free arborization.

C. Cell with a short axon (N) that branches out in a free arborization.

D. Spindle-shaped cell in stratum zonale.

D. Spindle-shaped cell in the zonal layer.

E. Small pyramidal cell.

E. Small pyramid cell.

F. Large pyramidal cell.

F. Large pyramid cell.

G. Cell of Martinotti.

G. Martinotti Cell.

H. Polymorphic cell.

H. Polymorphic cell.

K. Corticipetal fibres.

K. Corticipetal fibers.

3. The Layer of large Pyramidal Cells.—This is characterized by the presence of numbers of cells of the same type as those of the preceding layer, but of larger size. The nerve-fibre process becomes a medullated fibre of the white matter.

3. The Layer of large Pyramidal Cells.—This layer contains many cells that are the same type as those in the layer before it, but they are larger. The nerve-fiber processes turn into myelinated fibers of the white matter.

4. The Layer of Polymorphous Cells.—The cells of this layer are irregular in outline, and give off several dendrites branching into the surrounding grey matter. The neuraxon gives off a number of collaterals, and then becomes a nerve-fibre of the central white matter.

4. The Layer of Polymorphous Cells.—The cells in this layer have an irregular shape and extend several dendrites that branch out into the surrounding gray matter. The neuraxon produces multiple collaterals and then turns into a nerve fiber within the central white matter.

Scattered through these three layers there are also a number of cells (cells of Golgi) whose neuraxon divides at once, the divisions terminating within the immediate vicinity of the cell-body. Some cells are also found in which the neuraxon, instead of running into the white matter of the brain, passes toward the surface; these are called cells of Martinotti.

Scattered throughout these three layers are also several cells (cells of Golgi) whose neuraxon branches off immediately, with the branches ending close to the cell body. Some cells are also present where the neuraxon, instead of extending into the brain's white matter, moves towards the surface; these are known as cells of Martinotti.

The medullated nerve-fibres of the white matter when traced into the cortex are seen to enter in bundles set vertically to the surface. These bundles taper and are resolved into isolated fibres in the upper parts of the pyramidal layers. The fibres constituting the bundles form two sets. (a) The centrifugal fibres consist as above described of the fibre processes of the pyramidal and polymorphous cells. (b) The centripetal fibres ascend through the cortex to terminate within the molecular layer by horizontally running branches. As they pass through they give off a number of collaterals. The position of the cells from which these fibres arise is not known. In addition to the radially arranged bundles of fibres, networks are formed by the interlacement with them of large numbers of fine medullated fibres running tangentially to the surface. These are derived chiefly from the collaterals of the pyramidal cells and of the centripetal fibres. They form two specially marked bundles, one within the layer of the polymorphous cells known as the inner band of Baillarger, and another in the layer of large pyramidal cells called the outer band of Baillarger. This latter is very thick in the calcarine region, and forms the white stria of Gennin, while the inner band is best seen in the precentral gyrus. As both these strands cross the already mentioned radial bundles at right angles, they are regarded as specialized parts of an interradial reticulum of fibres, but, nearer the surface than the radial bundles penetrate, tangential fibres are found, and here they are called the supraradial reticulum. In certain parts of the brain the fibres of this reticulum are more closely set, and form the band of Bechterew in the superficial part of the small pyramidal cell zone.

The medullated nerve fibers in the white matter, when traced into the cortex, are seen to enter in vertical bundles relative to the surface. These bundles taper off and break down into individual fibers in the upper parts of the pyramidal layers. The fibers that make up these bundles are divided into two sets. (a) The centrifugal fibers, as described earlier, consist of the nerve processes from the pyramidal and polymorphous cells. (b) The centripetal fibers ascend through the cortex to end in the molecular layer with branches that run horizontally. As they pass through, they give off multiple collaterals. The origin of the cells that produce these fibers is not known. Alongside the radially arranged bundles of fibers, networks are formed where a large number of fine medullated fibers run parallel to the surface. These primarily come from the collaterals of the pyramidal cells and the centripetal fibers. They create two well-defined bundles: one within the layer of polymorphous cells known as the inner band of Baillarger, and another in the layer of large pyramidal cells called the outer band of Baillarger. The outer band is particularly thick in the calcarine region and forms the white stria of Gennin, while the inner band is most visible in the precentral gyrus. Since both these strands cross the previously mentioned radial bundles at right angles, they are considered specialized parts of an interradial reticulum of fibers. However, closer to the surface than where the radial bundles extend, tangential fibers are found, referred to as the supraradial reticulum. In certain areas of the brain, the fibers in this reticulum are more closely packed and form the band of Bechterew in the superficial part of the small pyramidal cell zone.

From The Museum Catalogue of the Royal College of Surgeons of England.

Fig. 16.—Brain of Petromyzon marinus (dorsal view). A, Brain; B, choroid plexus removed.

For further information on the structure of the cerebral cortex, see A.W. Campbell, Proc. R. Soc. vols. lxxii. and lxxiv.

For more information on the structure of the cerebral cortex, see A.W. Campbell, Proc. R. Soc. vols. lxxii. and lxxiv.

Comparative Anatomy.

Comparative Anatomy.

A useful introduction to the study of the vertebrate brain is that of the Amphioxus, one of the lowest of the Chordata or animals having a notochord. Here the brain is a very slightly modified part of the dorsal tubular nerve-cord, and, on the surface, shows no distinction from the rest of that cord. When a section is made the central canal is seen to be enlarged into a cavity, the neurocoele, which, in the young animal, communicates by an opening, the neuropore, with the bottom of the olfactory pit, and so with the exterior. More ventrally another slight diverticulum probably represents the infundibulum. The only trace of an eye is a patch of pigment at the anterior end of the brain, and there are no signs of any auditory apparatus. There are only two pairs of cerebral nerves, both of which are sensory (Willey, Amphioxus, 1894). In the Cyclostomata, of which the lamprey (Petromyzon) is an example, the minute brain is much more complex, though it is still only a very slight enlargement of the anterior end of the cord. The single cavity seen in Amphioxus is here subdivided into three: an anterior or prosencephalon, a middle or mesencephalon, and a hinder or rhombencephalon. The rhombencephalon has a very slight transverse thickening in the fore-part of its roof, this is the rudimentary cerebellum (Cer.); the rest of this part of the brain is taken up by the large medulla, the cavity of which is the fossa rhomboidalis or fourth ventricle. This fossa is roofed over by the epithelium lining the cavity of the ventricle, by pia mater and blood-vessels constituting a choroid plexus (fig. 16, B). The fourth ventricle communicates with the parts in front by means of a passage known as the aqueduct of Sylvius.

A helpful starting point for studying the vertebrate brain is the Amphioxus, one of the simplest Chordata or animals with a notochord. In this species, the brain is just a slightly modified section of the dorsal tubular nerve cord and doesn’t look different from the rest of that cord on the surface. When a cross-section is made, the central canal expands into a space called the neurocoele, which, in younger animals, connects via an opening known as the neuropore to the bottom of the olfactory pit, linking it to the outside. Further down, another small pouch likely corresponds to the infundibulum. The only hint of an eye is a pigment patch at the front of the brain, and there are no signs of any hearing system. There are only two pairs of cerebral nerves, both of which are sensory (Willey, Amphioxus, 1894). In the Cyclostomata, exemplified by the lamprey (Petromyzon), the tiny brain is much more complex, though it remains just a slight enlargement of the anterior end of the cord. The single cavity seen in Amphioxus divides into three: an anterior or prosencephalon, a middle or mesencephalon, and a hind or rhombencephalon. The rhombencephalon features a slight thickening in the front part of its roof, which is the primitive cerebellum (Cer.); the rest of this brain section is occupied by the large medulla, whose cavity is the fossa rhomboidalis or fourth ventricle. This fossa is covered by the epithelium lining the ventricle’s cavity, along with pia mater and blood vessels forming a choroid plexus (fig. 16, B). The fourth ventricle connects to the parts in front via a channel known as the aqueduct of Sylvius.

The mesencephalon or mid-brain, when looked at from the dorsal surface, shows a pair of large hollow swellings, the optic lobes or corpora bigemina. Their cavities open out from the aqueduct of 401 Sylvius, and from the nervous tissue in their walls the optic nerves derive their fibres. From the front of the prosencephalon or anterior vesicle the olfactory nerves come off, and at the base of each of these are two hollow swellings; the larger and more anterior is the olfactory bulb, the smaller and more posterior the cerebral hemisphere. Both these swellings must be regarded as lateral outgrowths from the blind front end of the original single vesicle of the brain as seen in Amphioxus, and from the anterior subdivision or prosencephalon in the lamprey. The anterior vesicle, however, is now again subdivided, and that part from which the cerebral hemispheres bud out, and the hemispheres themselves, is called the telencephalon, while the posterior part of the original prosencephalon is known as the thalamencephalon, or more rarely the diencephalon. On the dorsal surface of the thalamencephalon are two nervous masses called the ganglia habenulae; the right is much larger than the left, and from it a stalk runs forward and upward to end in the vestigial pineal body (or epiphysis), which contains rudiments of a pigmented retina and of a lens, and which is usually regarded as the remains of one of a pair of median eyes, though it has been suggested that it may be an organ for the appreciation of temperature. From the small left ganglion habenulae a still more rudimentary pineal stalk projects, and there are signs of a third outgrowth (paraphysis) in front of these. On the floor of the thalamencephalon the blind pouch-like infundibulum is in contact with the pituitary body, an outgrowth from the combined pituitary and olfactory pouch, which in the adult opens on to the top of the head just in front of the pineal area. The anterior closed end of the nerve-tube, in front of the foramina of Munro or openings from which the hemispheres have grown out, is known as the lamina terminalis, and in this is seen a little white commissure, connecting the hemispheres of opposite sides and belonging entirely to the telencephalon, known as the anterior commissure. The roof of the telencephalon is mainly epithelial, and contains no traces of cortical structure. In the posterior part of the roof of the thalamencephalon is the small posterior commissure (Ahlborn, Zeits. wiss. Zool. Bd. xxxix., 1883, p. 191). In the Elasmobranch Fish, such as the sharks and rays, the cerebellum (Cer. fig. 17) is very large and contains the layers found in all the higher vertebrates. In the mesencephalon fibres corresponding with those of the fillet of higher vertebrates can be seen, and there is a nucleus in the hinder part of the corpora bigemina foreshadowing the separation into corpora quadrigemina. There is only one pineal stalk in the roof of the thalamencephalon, and the ganglia habenulae—very constant structures in the vertebrate brain—are not so marked as in Petromyzon, but are, as usual, connected with the olfactory parts of the cerebrum, with the surface of the optic lobes (tectum opticum), and with the corpus interpedunculare (Meynert’s bundle). They are united across the middle line by a small superior or habenular commissure. In the floor of the thalamencephalon are two masses of ganglionic tissue, the optic thalami. The infundibulum dilates into two rounded bodies, the lobi inferiores, while the pituitary body or hypophysis cerebri has two lateral diverticula known as sacci vasculosi. Ganglia geniculata are found for the first time in connexion with the optic tracts in the lower part of the thalamus. The olfactory lobes (fig. 17, Olf. Bulb) are very large and often separated by long stalks from the cerebral hemispheres, which are comparatively much larger than those of the Cyclostomata; their roof or pallium is nervous, but devoid of cortical structure, while in the floor in some species large anterior basal ganglia or corpora striata are found (Miklucho-Maclay, Beiträge z. vergl. Neurol., 1870; Edinger, Arch. mikr. Anat. Bd. lviii., 1901, p. 661, “Cerebellum”). The Teleostean Fish are chiefly remarkable for the great development of the optic lobes and suppression of the olfactory apparatus. The pallium is non-nervous, and the optic tracts merely cross one another instead of forming a commissure. A process of the cerebellum called valvula cerebelli projects into the cavity of each optic lobe (Rabl. Ruckhard, Arch. Anat. u. Phys., 1898, p. 345 [Pallium]; Haller, Morph. Jahrb. Bd. xxvi., 1898, p. 632 [Histology and Bibliography]). The brain of the Dipnoi, or mud fish, shows no very important developments, except that the anterior pineal organ or paraphysis is large (Saunders, Ann. and Mag. Nat. Hist. ser. 6, vol. iii., 1889, p. 157; Burkhardt, Centralnervensystem v. Protopterus, Berlin, 1892).

The midbrain, when viewed from above, reveals a pair of large hollow bulges known as the optic lobes or corpora bigemina. Their cavities connect to the aqueduct of Sylvius, and the optic nerves originate from the nervous tissue in their walls. From the front of the forebrain or anterior vesicle, the olfactory nerves emerge, and at the base of each are two hollow bulges; the larger, more forward one is the olfactory bulb, while the smaller, more backward one is the cerebral hemisphere. These bulges are considered lateral outgrowths from the blind front end of the initial single brain vesicle seen in Amphioxus and from the anterior area or forebrain in the lamprey. However, the anterior vesicle is now subdivided again, with the part from which the cerebral hemispheres develop, along with the hemispheres themselves, called the telencephalon, while the back part of the original forebrain is referred to as the thalamencephalon or, less commonly, the diencephalon. On the dorsal surface of the thalamencephalon are two nervous masses called the habenular ganglia; the right one is much larger than the left, and from it a stalk extends forward and upward to end in the vestigial pineal body (or epiphysis), which contains remnants of a pigmented retina and a lens, and is typically viewed as the leftover from what would have been a pair of median eyes, although it's also proposed it might serve as a temperature-sensing organ. From the smaller left habenular ganglion, a more rudimentary pineal stalk projects, and signs of a third outgrowth (paraphysis) can be seen in front of these. The floor of the thalamencephalon houses the blind, pouch-like infundibulum, which is in contact with the pituitary gland, an outgrowth from the combined pituitary and olfactory pouch, which in adults opens at the top of the head just in front of the pineal area. The anterior closed end of the nerve tube, located in front of the foramina of Munro or openings from which the hemispheres have grown, is called the lamina terminalis, and within it is a small white commissure connecting the hemispheres on opposite sides and belonging entirely to the telencephalon, known as the anterior commissure. The roof of the telencephalon consists mostly of epithelial tissue, without signs of cortical structure. In the posterior section of the roof of the thalamencephalon is a small posterior commissure (Ahlborn, Zeits. wiss. Zool. Bd. xxxix., 1883, p. 191). In Elasmobranch fish, such as sharks and rays, the cerebellum (Cer. fig. 17) is very large and contains the layers found in all higher vertebrates. In the midbrain, fibers corresponding to those of the fillet in higher vertebrates can be observed, and there's a nucleus in the back part of the corpora bigemina that indicates the separation into corpora quadrigemina. There is only one pineal stalk in the roof of the thalamencephalon, and the habenular ganglia—very consistent structures in the vertebrate brain—are not as pronounced as in Petromyzon, but are typically connected to the olfactory regions of the cerebrum, the surface of the optic lobes (tectum opticum), and the corpus interpedunculare (Meynert’s bundle). They are connected across the middle line by a small superior or habenular commissure. In the floor of the thalamencephalon, there are two clusters of ganglionic tissue known as the optic thalami. The infundibulum expands into two rounded bodies, the lobi inferiores, while the pituitary gland or hypophysis cerebri features two lateral diverticula known as sacci vasculosi. Ganglia geniculata are observed for the first time in relation to the optic tracts in the lower part of the thalamus. The olfactory lobes (fig. 17, Olf. Bulb) are very large and often set apart by long stalks from the cerebral hemispheres, which are relatively much larger than those in the Cyclostomata; their roof or pallium is nervous but lacks cortical structure, while in the floor of some species, large anterior basal ganglia or corpora striata are found (Miklucho-Maclay, Beiträge z. vergl. Neurol., 1870; Edinger, Arch. mikr. Anat. Bd. lviii., 1901, p. 661, “Cerebellum”). Teleostean fish are primarily noted for the significant development of their optic lobes and the reduction of their olfactory apparatus. The pallium is non-nervous, and the optic tracts merely cross over each other instead of forming a commissure. A process of the cerebellum called valvula cerebelli extends into the cavity of each optic lobe (Rabl. Ruckhard, Arch. Anat. u. Phys., 1898, p. 345 [Pallium]; Haller, Morph. Jahrb. Bd. xxvi., 1898, p. 632 [Histology and Bibliography]). The brain of the Dipnoi, or mud fish, shows no major developments, except that the anterior pineal organ or paraphysis is large (Saunders, Ann. and Mag. Nat. Hist. ser. 6, vol. iii., 1889, p. 157; Burkhardt, Centralnervensystem v. Protopterus, Berlin, 1892).

From Cat. R.C.S. England.

Fig. 17.—Section of the Brain of Porbeagle Shark (Lamna).

In the Amphibia the brain is of a low type, the most marked advances on that of the fish being that the anterior commissure is divided into a dorsal and ventral part, of which the ventral is the true anterior commissure of higher vertebrates, while the dorsal is a hippocampal commissure and coincides in its appearance with the presence of a small mass of cells in the outer layer of the median wall of the pallium, which is probably the first indication of a hippocampal cortex or cortex of any kind (Osborn, Journ. Morph. vol. ii., 1889, p. 51).

In amphibians, the brain is relatively simple, with the main advancements over fish brains being that the anterior commissure is split into a dorsal and ventral part. The ventral section is the actual anterior commissure found in higher vertebrates, while the dorsal part functions as a hippocampal commissure. This part appears alongside a small cluster of cells in the outer layer of the median wall of the pallium, which likely represents the earliest sign of a hippocampal cortex or any type of cortex (Osborn, Journ. Morph. vol. ii., 1889, p. 51).

From Cat. R.C.S. England.

Fig. 18.—Section of Brain of Turtle (Chelone).

In the Reptilia the medulla has a marked flexure with a ventral convexity, and an undoubted cerebral cortex for the first time makes its appearance. The mesial wall of the cerebral hemisphere is divided into a large dorsal hippocampal area (fig. 18, Hip.) and a smaller ventral olfactory tubercle. Between these two a narrow area of ganglionic matter runs forward from the side of the lamina terminalis and is known as the paraterminal or precommissural area (Elliot Smith, Journ. Anat. and Phys. vol. xxxii. p. 411). To the upper lateral part of the hemisphere Elliot Smith has given the name of neopallium, while the lower lateral part, imperfectly separated from it, is called the pyriform lobe. In the Lacertilia the pineal eye, if it be an eye, is better developed than in any existing vertebrate, though even in them there is no evidence of its being used for sight. Behind the so-called pineal eye and its stalk is the epiphysis or pineal body, and sometimes there is a dorsal sac between them (see fig. 18).1 The middle or soft commissure appears in certain reptiles (Crocodilia and Chelonia), as does also the corpus mammillare (Edinger, Senckenberg, Naturf. Gesell. Bd. xix., 1896, and Bd. xxii., 1899; Haller, Morph. Jahrb. Bd. xxviii., 1900, p. 252). Among the birds there is great unity of type, the cerebellum is large and, by its forward projection, presses the optic lobes down toward the ventro-lateral part of the brain. The cerebral hemispheres are also large, owing chiefly to the great size of the corpora striata, which already show a differentiation into caudate nucleus, putamen and globus pallidus. The pallium is reptilian in character, though its cortical area is more extensive. The geniculate bodies are very large (Bumm, Zeits. wiss. Zool. Bd. xxxviii., 1883, p. 430; Brandis, Arch. mikr. Anat. Bd. xli., 1893, p. 623, and xliii., 1894, p. 96, and xliv., 1895, p. 534; Boyce and Warrington, Phil. Trans. vol. cxci., 1899, p. 293).

In reptiles, the medulla has a noticeable bend with a bulging front, and for the first time, a distinct cerebral cortex appears. The inner wall of the cerebral hemisphere is divided into a large upper hippocampal area (fig. 18, Hip.) and a smaller lower olfactory tubercle. Between these two areas, a narrow band of nerve tissue extends forward from the side of the lamina terminalis and is called the paraterminal or precommissural area (Elliot Smith, Journ. Anat. and Phys. vol. xxxii. p. 411). The upper outer part of the hemisphere has been named neopallium by Elliot Smith, while the lower outer part, which is not fully separated from it, is referred to as the pyriform lobe. In lizards, the pineal eye, if it is indeed an eye, is more developed than in any existing vertebrate, although there is no evidence that it is used for vision. Behind the so-called pineal eye and its stalk is the epiphysis or pineal body, and sometimes a dorsal sac exists between them (see fig. 18).1 The middle or soft commissure can be found in certain reptiles (Crocodilia and Chelonia), as can the corpus mammillare (Edinger, Senckenberg, Naturf. Gesell. Bd. xix., 1896, and Bd. xxii., 1899; Haller, Morph. Jahrb. Bd. xxviii., 1900, p. 252). Among birds, there is a strong type unity; the cerebellum is large and, due to its forward extension, pushes the optic lobes downward toward the lower sides of the brain. The cerebral hemispheres are also large, mainly because of the significant size of the corpora striata, which already display a differentiation into caudate nucleus, putamen, and globus pallidus. The pallium has a reptilian character, though its cortical area is more extensive. The geniculate bodies are very large (Bumm, Zeits. wiss. Zool. Bd. xxxviii., 1883, p. 430; Brandis, Arch. mikr. Anat. Bd. xli., 1893, p. 623, and xliii., 1894, p. 96, and xliv., 1895, p. 534; Boyce and Warrington, Phil. Trans. vol. cxci., 1899, p. 293).

Among the Mammalia the Monotremata have a cerebellum which shows, in addition to the central lobe of the lower vertebrates, a flocculus on each side, and the two halves of the cerebellum are united by a ventral commissure, the pons varolii. The pallium is reptilian in its arrangement, but that part of it which Elliot Smith has named the neopallium is very large, both in the Ornithorynchus and Echidna, a fact very difficult to account for. In the latter animal the cortical area is so extensive as to be thrown into many and deep sulci, and yet the Echidna is one of the lowliest of mammals in other respects. A well-marked rhinal fissure separates the pyriform lobe from the neopallium, while, on the mesial surface, the hippocampal fissure separates the neopallium from the hippocampal area. Just below the hippocampal fissure a specially coloured tract indicates 402 the first appearance of the fascia dentata (see fig. 20). The anterior commissure is divided, as in reptiles, into dorsal and ventral parts, of which the latter is the larger (fig. 20, Comm. V. and D.), while just behind the dorsal part is the first appearance of the fimbria or fornix. In addition to the two fissures already named, there is, in the Echidna, one which in position and mode of formation corresponds with the Sylvian fissure of higher mammals. Elliot Smith, however, wisely refuses to homologize it absolutely with that fissure, and proposes the name of pseudosylvian for it. The pineal body is rudimentary, and the optic lobes are now, and throughout the Mammalia, subdivided into four corpora quadrigemina.

Among mammals, monotremes have a cerebellum that includes, in addition to the central lobe found in lower vertebrates, a flocculus on each side. The two halves of the cerebellum are connected by a ventral commissure known as the pons varolii. The pallium is arranged in a reptilian way, but the part called the neopallium, as named by Elliot Smith, is very large in both the platypus and echidna, which is quite puzzling. In the echidna, the cortical area is so extensive that it has many deep sulci, yet this animal is considered one of the most primitive mammals in other aspects. A distinct rhinal fissure separates the pyriform lobe from the neopallium, and on the inner surface, the hippocampal fissure separates the neopallium from the hippocampal area. Just below the hippocampal fissure, a uniquely colored tract indicates the first appearance of the fascia dentata (see fig. 20). The anterior commissure is divided, like in reptiles, into dorsal and ventral parts, with the ventral part being larger (fig. 20, Comm. V. and D.), while just behind the dorsal part is where the fimbria or fornix first appears. Besides the two named fissures, the echidna has one that corresponds in position and formation to the Sylvian fissure of higher mammals. However, Elliot Smith wisely chooses not to completely equate it with that fissure and suggests the name pseudosylvian for it. The pineal body is underdeveloped, and the optic lobes are now, and throughout all mammals, divided into four corpora quadrigemina.

From Cat. R.C.S. England.

Fig. 19.—Ventral and Dorsal Views of the Brain of Ornithorynchus.

Among the Marsupialia the Tasmanian devil (Sarcophilus) gives a very good idea of a generalized mammalian brain, and shows a large development of the parts concerned in the sense of smell. The most important advance on the monotreme brain is that the calcarine fissure has now appeared on the posterior part of the mesial surface and causes a bulging into the ventricle, called the calcar avis or hippocampus minor, just as the hippocampal fissure causes the hippocampus major (Gervais, Nuov. Arch. Mus. tom. v., 1869; Ziehen, Jenaische Denkschr. Bd. vi., 1897).

Among the marsupials, the Tasmanian devil (Sarcophilus) provides a clear example of a general mammalian brain and shows significant development in the regions responsible for the sense of smell. The most notable advancement compared to the monotreme brain is that the calcarine fissure has now appeared on the back part of the inner surface, leading to a bulging in the ventricle, referred to as the calcar avis or hippocampus minor, similar to how the hippocampal fissure forms the hippocampus major (Gervais, Nuov. Arch. Mus. tom. v., 1869; Ziehen, Jenaische Denkschr. Bd. vi., 1897).

From Cat. R.C.S. England.

Fig. 20.—Mesial and Lateral Views of the Brain of Ornithorynchus.
From Cat. R.C.S. England.

Fig. 2l.—Mesial and Lateral Views of the Brain of the Tasmanian Devil (Sarcophilus).

In the Eutheria or mammals above the marsupials, the cerebellum gradually becomes more complex, owing to the appearance of lateral lobes between the flocculus and the vermis, as well as the paraflocculus on the outer side of the flocculus. The corpus callosum now first appears as a bridge between the neopallia, and its development leads to the stretching of the hippocampal formation, so that in the higher mammals the hippocampus is only found in the lower and back part of the ventricle, while the rudiments of the dorsal part remain as the striae longitudinals on the corpus callosum. The dorsal part of the original anterior commissure becomes the fornix, and the paraterminal area is modified to form the septum lucidum. The first appearance of the fissure of Rolando is probably in some of the Carnivora, in which, as the sulcus crucialis, it forms the posterior boundary of the “ursine lozenge” described by Mivart (Journ. Linn. Soc. vol. xix., 1886) (see fig. 22, Sulc. Cru.). In the higher apes or Anthropoidea the human fissures and sulci are largely recognizable, so that a gibbon’s brain, apart from all question of comparative anatomy, forms a useful means of demonstrating to a junior class the main gyri and sulci of Man in a simple and diagrammatic way. The main points of difference, apart from greater simplicity, are that the central lobe or island of Reil is exposed on the surface of the brain, as it is in the human foetus, and that the anterior part of the occipital lobe has a well-marked vertical sulcus, called the simian sulcus or Affenspalte; this often has a semilunar shape with its convexity forward, and is then called the sulcus lunatus. It is usually concealed in European brains by the overgrowth of the surrounding gyri, but it occasionally remains, though less frequently than in the brains of Egyptian fellaheen. Its relation to the white stria of Gennari is especially interesting, and is recorded by Elliot Smith in the Anatomischer Anzeiger, Bd. xxiv., 1904, p. 436. The rhinal fissure, which is so characteristic a feature of the lower mammals, almost disappears in Man, and is only represented by the incisura temporalis (see fig. 11, i.t). The hippocampal fissure persists with little modification all through the mammalian class. The calcarine fissure remains with many modifications from the marsupials to man, and in view of the famous controversy of 1864, in which Owen, Huxley and the then bishop of Oxford took part, it is interesting to note that its hippocampus minor can now be clearly demonstrated, even in the Marsupialia. Another very ancient and stable sulcus is the orbital, which is a simple antero-posterior line until Man is reached (see fig. 23, Sulc. Orb.). The great point of importance, however, in the evolution of the mammalian brain is the gradual suppression of the olfactory region, and the development of the neopallium, a development which takes a sudden stride between the Anthropoid apes and Man. (For further particulars of this and other points in the comparative anatomy of the brain, see Catalogue of the Physiological Series of the Museum of the Royal College of Surgeons of England, vol. ii. 2nd ed., by R.H. Burne and G. Elliot Smith, London, 1902.)

In Eutheria, the group of mammals that includes those above marsupials, the cerebellum gradually gets more complex due to the development of lateral lobes between the flocculus and the vermis, along with the paraflocculus on the outer side of the flocculus. The corpus callosum appears for the first time, acting as a bridge between the neopallia, and its growth causes the hippocampal formation to stretch. In higher mammals, the hippocampus only appears in the lower and back part of the ventricle, while the remnants of the dorsal part are found as the striae longitudinals on the corpus callosum. The dorsal part of the original anterior commissure develops into the fornix, and the paraterminal area changes to form the septum lucidum. The fissure of Rolando likely first appears in some Carnivora, where it is referred to as the sulcus crucialis, marking the back boundary of the "ursine lozenge" described by Mivart (Journ. Linn. Soc. vol. xix., 1886) (see fig. 22, Sulc. Cru.). In higher apes or Anthropoidea, the human fissures and sulci are largely recognizable, which means a gibbon’s brain serves as a useful tool for teaching junior classes about the key gyri and sulci of humans in a straightforward and diagrammatic manner. Apart from being simpler, a major difference is that the central lobe or island of Reil is visible on the brain's surface, like in a human fetus, and the front part of the occipital lobe has a clearly defined vertical sulcus known as the simian sulcus or Affenspalte. This sulcus often has a crescent shape with its curve facing forward and is then referred to as the sulcus lunatus. It is usually hidden in European brains due to the growth of surrounding gyri, but sometimes it remains, though less often than in the brains of Egyptian fellaheen. Its connection to the white stria of Gennari is particularly interesting and is noted by Elliot Smith in the Anatomischer Anzeiger, Bd. xxiv., 1904, p. 436. The rhinal fissure, which is a notable feature of lower mammals, nearly disappears in humans and is only represented by the incisura temporalis (see fig. 11, i.t). The hippocampal fissure remains largely unchanged throughout the mammalian class. The calcarine fissure shows many changes from marsupials to humans, and in light of the famous debate in 1864 involving Owen, Huxley, and the then Bishop of Oxford, it is notable that its hippocampus minor can now be clearly seen even in Marsupialia. Another very ancient and stable sulcus is the orbital, which is a simple front-to-back line until it reaches humans (see fig. 23, Sulc. Orb.). The key point in the evolution of the mammalian brain is the gradual reduction of the olfactory region and the development of the neopallium, a transition that takes a significant leap between anthropoid apes and humans. (For more details on this and other topics in comparative brain anatomy, see Catalogue of the Physiological Series of the Museum of the Royal College of Surgeons of England, vol. ii. 2nd ed., by R.H. Burne and G. Elliot Smith, London, 1902.)

From Cat. R.C.S. England.

Fig. 22.—Dorsal and Lateral Views of the Brain of a Ratel (Mellivora indica).

Embryology.

Embryology.

The brain, like the rest of the nervous system, is developed from the ectoderm or outer layer of the embryo by the formation of a groove in the mid-dorsal line. The lips of this medullary groove unite to form a canal beginning at the place where the neck of the embryo is to be. The part of the neural canal in front of the earliest union forms the brain and very early becomes constricted into three vesicles, to which the names of prosencephalon, mesencephalon and rhombencephalon are now usually given. The simple tubular brain we have seen as a permanent arrangement in Amphioxus, but the stage of the three vesicles is a transitory one, and is not found in the adult of any existing animal. From the sides of the prosencephalon, the optic vesicles grow out before the neural tube is completely closed, and eventually form the optic nerves and retinae, while, soon after this, the cerebral hemispheres bulge from the antero-dorsal part of the first primary vesicle, their points of evagination being the foramina of Munro. From the ventral parts of these cerebral hemispheres the olfactory lobes are 403 constricted off, while just behind the openings of the foramina of Munro a constriction occurs which divides the prosencephalon into two secondary vesicles, the anterior of which, containing the foramina of Munro, is called the telencephalon, while the posterior is the thalamencephalon or diencephalon. A constriction also occurs in the hind vesicle or rhombencephalon, dividing it into an anterior part, the metencephalon, from which the cerebellum is developed, and a posterior or myelencephalon, the primitive medulla oblongata. At this stage the general resemblance of the brain to that of the lamprey is striking.

The brain, like the rest of the nervous system, develops from the ectoderm, or outer layer, of the embryo by forming a groove along the mid-dorsal line. The edges of this medullary groove come together to create a canal that starts where the neck of the embryo will be. The section of the neural canal in front of the first connection forms the brain and quickly becomes narrowed into three vesicles, now commonly referred to as the prosencephalon, mesencephalon, and rhombencephalon. We see a simple tubular brain in Amphioxus as a permanent structure, but the stage of the three vesicles is temporary and isn't found in any adult animal today. The optic vesicles grow out from the sides of the prosencephalon before the neural tube has fully closed, eventually developing into the optic nerves and retinas. Shortly after this, the cerebral hemispheres start to bulge from the front part of the first primary vesicle, where the foramina of Munro are located. From the underside of these cerebral hemispheres, the olfactory lobes are formed, while just behind the openings of the foramina of Munro, a constriction occurs that divides the prosencephalon into two secondary vesicles. The front one, which includes the foramina of Munro, is called the telencephalon, while the back one is the thalamencephalon or diencephalon. A constriction also happens in the hind vesicle or rhombencephalon, splitting it into an anterior section, the metencephalon, which develops into the cerebellum, and a posterior section or myelencephalon, which forms the primitive medulla oblongata. At this stage, the brain closely resembles that of the lamprey.

Before the secondary constrictions occur three vertical flexures begin to form. The first is known as the cephalic, and is caused by the prosencephalon bending sharply downward, below and in front of the mesencephalon. The second is the cervical, and marks the place where the brain ends and the spinal cord begins; the concavity of this flexure is ventral. The third to appear has a ventral convexity and is known as the pontine, since it marks the site of the future pons Varolii; it resembles the permanent flexure in the reptilian brain.

Before the secondary bends happen, three vertical curves start to develop. The first is called the cephalic, which occurs because the prosencephalon bends sharply downward, below and in front of the mesencephalon. The second is the cervical, indicating where the brain ends and the spinal cord begins; this bend curves inward toward the front. The third to form has a forward curve and is known as the pontine, as it marks the site of the future pons Varolii; it resembles the permanent bend found in the reptilian brain.

From Cat. R.C.S. England.

Fig. 23.—Lateral view of cerebral hemisphere of Gorilla (Anthropopithecus gorilla).

It will now be seen that the original neural canal, which is lined by ciliated epithelium, forms the ventricles of the brain, while superficial to this epithelium (ependyma) the grey and white matter is subsequently formed. It has been shown by His that the whole neural tube may be divided into dorsal or alar, and ventral or basal laminae, and, as the cerebral hemispheres bud out from the dorsal part of the anterior primary vesicle, they consist entirely of alar laminae. The most characteristic feature of the human and anthropoid brain is the rapid and great expansion of these hemispheres, especially in a backward direction, so that the mesencephalon and metencephalon are hidden by them from above at the seventh month of intra-uterine life. At first the foramina of Munro form a communication not only between the third and lateral ventricles, but between the two lateral ventricles, so that the cavity of each hemisphere is continuous with that of the other; soon, however, a median longitudinal fissure forms, into which the mesoderm grows to form the falx, and so the foramina of Munro are constricted into a V-shaped canal. In the floor of the hemispheres the corpora striata are developed at an early date by a multiplication of nerve cells, and on the external surface a depression, called the Sylvian fossa, marks the position of the future central lobe, which is afterwards hidden as the lips of the fossa (opercula) gradually close in on it to form the Sylvian fissure. The real fissures are complete infoldings of the whole thickness of the vesicular wall and produce swellings in the cavity. Some of them, like the choroidal on the mesial surface, are developed very early, while the vesicle is little more than epithelial, and contain between their walls an inpushing of mesoderm to form the choroid plexus. Others, like the hippocampal and calcarine, appear in the second and third months and correspond to invaginations of the nervous tissue, the hippocampus major and minor. The sulci appear later than the fissures and do not affect the internal cavity; they are due to the rapid growth of the cortex in certain areas. The corpus callosum and fornix appear about the third month and their development is somewhat doubtful; they are probably modifications of the lamina terminalis, but they may be secondary adhesions between the adjacent surfaces of the cerebral hemispheres where the cortical grey matter has not covered the white. They begin at their antero-ventral part near the genu of the corpus callosum and the anterior pillars of the fornix, and these are the parts which first appear in the lower mammals. The original anterior vesicle from which the hemispheres evaginate is composed, as already shown, of an anterior part or telencephalon and a posterior or thalamencephalon; the whole forming the third ventricle in the adult. Here the alar and basal laminae are both found, but the former is the more important; from it the optic thalami are derived, and more posteriorly the geniculate bodies. The anterior wall, of course, is the lamina terminalis, and from it are formed the lamina cinerea, the corpus callosum, fornix and septum lucidum. The roof largely remains epithelial and is invaginated into the ventricle by the mesoderm to form the choroid plexuses of the third ventricle, but at the posterior part it develops the ganglia habenulae and the pineal body, from a structure just in front of which both a lens and retinal elements are derived in the lower forms. This is one great difference between the development of this organ and that of the true eyes; indeed it has been suggested that the pineal is an organ of thermal sense and not the remains of a median eye at all. The floor of the third ventricle is developed from the basal laminae, which here are not very important and from which the tuber cinereum and, until the fourth month, single corpus mammillare are developed. The infundibulum or stalk of the posterior part of the pituitary body at first grows down in front of the tuber cinereum and, according to Gaskel’s theory, represents an ancestral mouth to which the ventricles of the brain and the central canal of the cord acted as the stomach and intestine (Quart. Journ. of Mic. Sci. 31, p. 379; and Journ. of Phys. v. 10, p. 153). The reason why the basal lamina is here small is because it contains the nuclei of no cranial nerves. The anterior and posterior commissures appear before the middle and the middle before the corpus callosum, as they do in phylogeny. In connexion with the thalamencephalon, though not really belonging to it, may be mentioned the anterior lobes of the pituitary body; these begin as an upward diverticulum from the posterior wall of the primitive pharynx or stomatodaeum about the fourth week. This pouch of Rathke, as it is called, becomes nipped off by the developing base of the skull, and its bifid blind end meets and becomes applied to the posterior part of the body, which comes down from the brain. In the mesencephalon the alar laminae form the corpora quadrigemina; these at first are bigeminal and hollow as they are in the lower vertebrates. The basal laminae thicken to form the crura cerebri. In the rhombencephalon the division into basal and alar laminae is better marked than in any other part; there is a definite groove inside the fourth ventricle, which remains in the adult as the superior and inferior fovea and which marks the separation between the two laminae. In the basal laminae are found the deep origins of most of the motor cranial nerves, while those of the sensory are situated in the alar laminae. The roof of the fourth ventricle widens out very much and remains largely epithelial as the superior and inferior medullary vela. The cerebellum develops in the anterior part of the roof of the rhombencephalon as two lateral rudiments which unite in the mid line and so form a transverse bar similar to that seen in the adult lamprey; at the end of the second month the flocculus and paraflocculus become marked, and later on a series of transverse fissures occur dividing the various lobes. Of the cerebellar peduncles the inferior develops first (third month), then the middle forming the pons (fourth month), and lastly the superior (fifth month) (Elliot Smith, Review of Neurology and Psychiatry, October 1903; W. Kuithan, “Die Entwicklung des Kleinhirns bei Säugetieren,” Munchener Med. Abhandl., 1895; B. Stroud, “Mammalian cerebellum,” Journ. of Comp. Neurology, 1895). Much of our knowledge of the tracts of fibres in the brain is due to the fact that they acquire their white sheaths at different stages of development, some long after birth.

It will now be observed that the original neural canal, which is lined with ciliated epithelium, forms the ventricles of the brain, while above this epithelium (ependyma) the grey and white matter is later developed. His has shown that the entire neural tube can be divided into dorsal or alar and ventral or basal laminae, and as the cerebral hemispheres grow out from the dorsal part of the anterior primary vesicle, they are entirely made of alar laminae. The most distinctive feature of the human and anthropoid brain is the rapid and significant growth of these hemispheres, especially towards the back, which causes the mesencephalon and metencephalon to be obscured from above by the seventh month of prenatal development. Initially, the foramina of Munro create a connection not only between the third and lateral ventricles but also between the two lateral ventricles, making the cavity of each hemisphere continuous with that of the other; however, a median longitudinal fissure soon forms, into which the mesoderm grows to create the falx, resulting in the foramina of Munro being narrowed into a V-shaped canal. In the floor of the hemispheres, the corpora striata are developed early on through an increase in nerve cells, and on the outer surface, a depression known as the Sylvian fossa indicates the location of the future central lobe, which later becomes covered as the edges of the fossa (opercula) gradually close in on it to create the Sylvian fissure. The true fissures are complete infoldings of the whole thickness of the vesicular wall, causing bulges in the cavity. Some of them, like the choroidal on the mesial surface, develop very early while the vesicle is only slightly more than epithelial and contain an inward growth of mesoderm to form the choroid plexus. Others, such as the hippocampal and calcarine, appear in the second and third months and correspond to invaginations of nervous tissue, the hippocampus major and minor. The sulci appear later than the fissures and do not impact the internal cavity; they arise from the rapid growth of the cortex in certain areas. The corpus callosum and fornix appear around the third month, with their development being somewhat uncertain; they are likely modifications of the lamina terminalis, but they could also be secondary adhesions between the neighboring surfaces of the cerebral hemispheres where the cortical grey matter has not yet covered the white matter. They originate at their anterior-ventral part near the genu of the corpus callosum and the anterior pillars of the fornix, and these are the parts that first develop in lower mammals. The original anterior vesicle from which the hemispheres emerge consists, as shown previously, of an anterior part or telencephalon and a posterior part or thalamencephalon; together they form the third ventricle in the adult. Here, both the alar and basal laminae are present, but the former is more significant; from it, the optic thalami are derived, and further back, the geniculate bodies. The anterior wall, of course, is the lamina terminalis, from which the lamina cinerea, corpus callosum, fornix, and septum lucidum are formed. The roof largely remains epithelial and is pushed into the ventricle by the mesoderm to create the choroid plexuses of the third ventricle, but at the back, it develops the ganglia habenulae and the pineal body, from a structure just in front of which both lens and retinal elements emerge in lower forms. This is a significant difference between the development of this organ and that of true eyes; indeed, it has been suggested that the pineal may be an organ of thermal sense and not a remnant of a median eye at all. The floor of the third ventricle develops from the basal laminae, which are less significant here and from which the tuber cinereum and, until the fourth month, the single corpus mammillare are formed. The infundibulum or stalk of the posterior part of the pituitary body initially grows down in front of the tuber cinereum, and according to Gaskel’s theory, represents an ancestral mouth through which the ventricles of the brain and the central canal of the spinal cord acted as the stomach and intestine (Quart. Journ. of Mic. Sci. 31, p. 379; and Journ. of Phys. v. 10, p. 153). The reason the basal lamina is small here is that it does not contain the nuclei of any cranial nerves. The anterior and posterior commissures develop before the middle, and the middle before the corpus callosum, as they do in phylogeny. In relation to the thalamencephalon, though not actually belonging to it, the anterior lobes of the pituitary body are worth mentioning; these start as an upward diverticulum from the posterior wall of the primitive pharynx or stomatodaeum around the fourth week. This pouch of Rathke, as it is called, becomes pinched off by the developing base of the skull, and its bifid blind end meets and connects with the back part of the body that descends from the brain. In the mesencephalon, the alar laminae form the corpora quadrigemina; these initially are bigeminal and hollow, as seen in lower vertebrates. The basal laminae thicken to form the crura cerebri. In the rhombencephalon, the division into basal and alar laminae is more distinctly marked than in any other area; there is a definite groove inside the fourth ventricle, which remains in the adult as the superior and inferior fovea and signifies the separation between the two laminae. The deep origins of most motor cranial nerves are located in the basal laminae, while the sensory ones are found in the alar laminae. The roof of the fourth ventricle widens significantly and remains largely epithelial as the superior and inferior medullary vela. The cerebellum develops in the front part of the roof of the rhombencephalon as two lateral rudiments that come together in the middle, forming a transverse bar similar to that found in the adult lamprey; by the end of the second month, the flocculus and paraflocculus become distinguishable, and later a series of transverse fissures divide the various lobes. Among the cerebellar peduncles, the inferior develops first (third month), then the middle, forming the pons (fourth month), and finally the superior (fifth month) (Elliot Smith, Review of Neurology and Psychiatry, October 1903; W. Kuithan, “Die Entwicklung des Kleinhirns bei Säugetieren,” Munchener Med. Abhandl., 1895; B. Stroud, “Mammalian cerebellum,” Journ. of Comp. Neurology, 1895). Much of what we know about the tracts of fibers in the brain is because they develop their white sheaths at different stages, with some forming long after birth.

For further details and references see Quain’s Anat. vol. i. (1908); Minot’s Human Embryology (New York); W. His, Anat. menschlicher Embryonen (Leipzig, 1881); Marshall’s Vertebrate Embryology; Kölliker, Grundriss der Entwickelungsgeschichte (Leipzig, 1880); A. Keith, Human Embryology and Morphology (London, 1904); O. Hertwig, Handbuch der vergleichenden und experimentellen Entwickelungslehre der Wirbeltiere, Bd. 2, part 3 (Jena, 1902-1906); Development of the Human Body, J.P. McMurrich (1906).

For further details and references see Quain’s Anat. vol. i. (1908); Minot’s Human Embryology (New York); W. His, Anat. menschlicher Embryonen (Leipzig, 1881); Marshall’s Vertebrate Embryology; Kölliker, Grundriss der Entwickelungsgeschichte (Leipzig, 1880); A. Keith, Human Embryology and Morphology (London, 1904); O. Hertwig, Handbuch der vergleichenden und experimentellen Entwickelungslehre der Wirbeltiere, Bd. 2, part 3 (Jena, 1902-1906); Development of the Human Body, J.P. McMurrich (1906).

(F. G. P.)

2. Physiology

2. Biology

The nervous system has as its function the co-ordinating of the activities of the organs one with another. It puts the organs into such mutual relation that the animal reacts as a whole with speed, accuracy and self-advantage, in response to the environmental agencies which stimulate it. For this office of the nervous system there are two fundamental conditions. The system must be thrown into action by agencies at work in the environment. Light, gravity, mechanical impacts, and so on, which are conditions significant for animal existence, must find the system responsive and through it evoke appropriate activity in the animal organs. And in fact there have been evolved in the animal a number of structures called receptive organs which are selectively excitable by different environmental agencies. Connected with these receptive organs lies that division of the nervous system which is termed afferent because it conducts impulses inwards towards the nervous centres. This division consists of elongated nerve-cells, in man some two 404 million in number for each half of the body. These are living threads of microscopic tenuity, each extending from a receptive organ to a central nervous mass. These central nervous masses are in vertebrates all fused into one, of which the part which lies in the head is especially large and complex, because directly connected with particularly important and delicate receptive organs. The part of the central nervous organ which lies in the head has, in consequence of its connexion with the most important receptive organs, evolved a dominant importance in the nervous system, and this is especially true of the higher animal forms. This head part of the central nervous organ is sufficiently different from the rest, even to anatomical examination, to have received a separate name, the brain. But the fact of its having received a separate name ought not to obscure the singleness and solidarity of the whole central nervous organ as one entity. The functions of the whole central nervous organ from region to region are essentially similar throughout. One of its essential functions is reception, via afferent nerves, of nervous impulses generated in the receptive organs by environmental agents as stimuli. In other words, whatever the nature of the agent, its result on the receptive organs enters the central nervous organ as a nervous impulse, and all segments of the central nervous organ receive impulses so generated. Further, it is not known that nervous impulses present qualitative differences among themselves. It is with these impulses that the central nervous organ whether spinal cord or brain has to deal.

The nervous system coordinates the activities of the organs with each other. It connects the organs in such a way that the animal reacts quickly, accurately, and advantageously to environmental stimuli. There are two fundamental conditions for this function of the nervous system. First, it must be activated by environmental factors. Elements like light, gravity, and mechanical impacts, which are vital for survival, need to trigger a response from the system, prompting appropriate actions in the animal's organs. Over time, animals have developed various structures known as receptive organs that respond selectively to different environmental stimuli. Linked to these receptive organs is the part of the nervous system called afferent, which carries impulses inward toward the nerve centers. This part consists of long nerve cells, about two million in number for each half of the body in humans. These are living threads, incredibly thin, each extending from a receptive organ to a central nervous mass. In vertebrates, these central nervous masses merge into one, with the area in the head being particularly large and complex because it connects directly to important and sensitive receptive organs. Due to its connection with these crucial receptive organs, the head part of the central nervous system has become especially significant, particularly in higher animal forms. This head region of the central nervous system is distinctive enough to have been given a separate name: the brain. However, the fact that it has a different name shouldn’t obscure the unity and cohesion of the whole central nervous system as a single entity. The functions of the entire central nervous system are essentially similar across its different regions. One key function is the reception of nervous impulses through afferent nerves that are triggered in the receptive organs by environmental stimuli. In other words, regardless of what the stimulus is, its effect on the receptive organs translates into a nervous impulse that enters the central nervous system, with all segments receiving these generated impulses. Additionally, there’s no evidence that nervous impulses differ qualitatively from one another. It is these impulses that the central nervous system, whether spinal cord or brain, must process.

Material and Psychical Signs of Cerebral Activity.—In the central nervous organ the action resulting from entrant impulses has issue in three kinds of ways. The reaction may die out, be suppressed, and so far as discoverable lead to nothing; or the impulses may evoke effect in either or both of two forms. Just as from the receptive organs, nerves lead into the central nervous organ, so conversely from the central organ other nerves, termed efferent, lead to various organs of the body, especially glands and muscles. The reaction of the central nervous organ to impulses poured into it commonly leads to a discharge of impulses from it into glands and muscles. These centrifugal impulses are, so far as is known, qualitatively like the centripetal impulses. On reaching the glands and muscles they influence the activity of those organs. Since those organs are therefore the mechanisms in which the ultimate effect of the nervous reaction takes place, they are often termed from this point of view effector organs. A change ensuing in effector organs is often the only sign an observer has that a nervous reaction has occurred, unless the nervous system under observation be the observer’s own.

Material and Psychical Signs of Cerebral Activity.—In the central nervous system, the action resulting from incoming impulses can happen in three ways. The reaction may fade away, be suppressed, and seem to lead to nothing; or the impulses may produce effects in one or both of two forms. Just as nerves carry signals from the sensory organs into the central nervous system, other nerves, known as efferent nerves, carry signals from the central system to various organs in the body, particularly glands and muscles. The central nervous system's response to incoming impulses typically results in a discharge of impulses to glands and muscles. These outgoing impulses are, as far as we know, similar in quality to the incoming impulses. When these impulses reach the glands and muscles, they influence the activity of those organs. Because these organs are the mechanisms where the ultimate effect of the nervous reaction occurs, they are often referred to as effector organs. A change in the effector organs is often the only sign that an observer has to indicate that a nervous reaction has taken place unless the nervous system being observed is their own.

If the observer turns to his own nervous system for evidence of reaction, he meets at once in numberless instances with sensation as an outcome or sign of its reaction. This effect he cannot show to any being beside himself. He can only describe it, and in describing it he cannot strictly translate it into any term of material existence. The unbridged gulf between sensation and the changes produced in effector organs necessitates a separate handling of the functions of the nervous system according as their office under consideration is sensation or material effect. This holds especially in the case of the brain, and for the following reasons.

If the observer looks at his own nervous system for signs of reaction, he quickly finds countless instances of sensation as a result or indication of that reaction. He can't demonstrate this effect to anyone except himself. He can only describe it, and when he does, he can’t really convert it into any terms of physical reality. The wide gap between sensation and the changes that happen in the effector organs requires a separate approach to the functions of the nervous system, depending on whether the focus is on sensation or physical effect. This is particularly true in the case of the brain, and for the following reasons.

Psychosis and the Fore-Brain.—Hippocrates wrote, “It is through the brain that we become mad, that delirium seizes us, that fears and terrors assail us.” “We know that pleasure and joy on the one hand and pain and grief on the other are referable to the brain. It is in virtue of it that we think, understand, see, hear, know ugliness and beauty, evil and good, the agreeable and the disagreeable.” Similarly and more precisely Descartes indicated the brain, and the brain alone, as the seat of consciousness. Finally, it was Flourens who perhaps first definitely insisted on the restriction of the seat of consciousness in higher animals to that part of the brain which is the fore-brain. A functional distinction between the fore-brain and the remainder of the nervous system seems, in fact, that consciousness and physical reactions are adjunct to the fore-brain in a way in which they are not to the rest of the system. After transection of the spinal cord, or of the brain behind the fore-brain, psychical phenomena do not belong to the reactions of the nervous arcs posterior to the transection, whereas they do still accompany reactions of the nervous arcs in front and still connected with the fore-brain. A man after severance of the spinal cord does not possess in the strict sense consciousness of the limbs whose afferent nerves lie behind the place of spinal severance. He can see them with his eyes, and if the severance lie between the arms and the legs, can feel the latter with his hands. He knows them to be a part of his body. But they are detached from his consciousness. Sensations derived from them through all other channels of sense than their own do not suffice to restore them in any adequate measure to his consciousness. He must have the sensations so called “resident” in them, that is, referred to them, without need of any logical inference. These can be yielded only by the receptive organs resident in the part itself, its skin, its joints, its muscles, &c., and can only be yielded by those receptive organs so long as the nerve impulses from them have access to the fore-brain. Consciousness, therefore, does not seem to attach to any portion of the nervous system of higher animals from which the fore-brain has been cut off. In the dog it has been found that no sign of memory, let alone intelligence, has been forthcoming after removal of the greater part of the fore-brain.

Psychosis and the Fore-Brain.—Hippocrates wrote, “It is through the brain that we become mad, that delirium takes hold of us, that fears and terrors attack us.” “We understand that pleasure and joy on one hand and pain and grief on the other are related to the brain. Because of it, we think, understand, see, hear, recognize ugliness and beauty, evil and good, what is pleasant and what is unpleasant.” Similarly, and more specifically, Descartes pointed to the brain, and the brain alone, as the center of consciousness. Finally, it was Flourens who perhaps first clearly argued that the center of consciousness in higher animals is limited to the fore-brain. There seems to be a functional difference between the fore-brain and the rest of the nervous system; in fact, consciousness and physical reactions are connected to the fore-brain in a way that they are not to the rest of the system. After cutting the spinal cord or severing the brain behind the fore-brain, mental phenomena do not belong to the reactions of the nervous pathways behind the cut, while they still accompany reactions in front that are still connected to the fore-brain. A person after severing the spinal cord does not truly have consciousness of the limbs whose nerves are behind the severed area. He can see them with his eyes, and if the cut is between the arms and the legs, he can feel the legs with his hands. He knows they are part of his body. But they are disconnected from his consciousness. Sensations from them through all other senses do not adequately bring them back into his consciousness. He must have the sensations that are “resident” in them, meaning those that originate from them without any need for logical reasoning. These can only come from the sensory organs located in the part itself, like its skin, joints, muscles, etc., and can only be triggered by those sensory organs as long as their nerve impulses can reach the fore-brain. Therefore, consciousness does not seem to associate with any part of the nervous system of higher animals that has been separated from the fore-brain. In dogs, it has been found that there is no sign of memory, let alone intelligence, after removing most of the fore-brain.

In lower vertebrates it is not clear that consciousness in primitive form requires always the co-operation of the fore-brain. In them the fore-brain does not seem a conditio sine qua non for psychosis—so far as we may trust the rather hazardous inferences which study of the behaviour of fish, &c., allows. And the difference between higher and lowlier animal forms in respect of the fore-brain as a condition for psychosis becomes more marked when the Arthropoda are examined. The behaviour of some Insecta points strongly to their possessing memory, rudimentary in kind though it may be. But in them no homologue of the fore-brain of vertebrates can be indisputably made out. The head ganglia in these Invertebrates may, it is true, be analogous in function in certain ways to the brain of vertebrates. Some experiments, not plentiful, indicate that destruction of these head ganglia induces deterioration of behaviour such as follows loss of psychical functions in cases of destruction of the fore-brain in vertebrates. Though, therefore, we cannot be clear that the head ganglia of these Invertebrates are the same structure morphologically as the brain of vertebrates, they seem to hold a similar office, exercising analogous functions, including psychosis of a rudimentary kind. We can, therefore, speak of the head ganglia of Arthropods as a brain, and in doing so must remember that we define by physiological evidence rather than by morphological.

In lower vertebrates, it isn't clear that consciousness in its basic form always requires the forebrain. It seems that the forebrain isn't essential for psychosis—at least, that's what we can gather from the somewhat risky conclusions drawn from studying the behavior of fish and similar creatures. The distinction between higher and lower animal forms regarding the forebrain as a prerequisite for psychosis becomes even clearer when we look at arthropods. The behavior of some insects strongly suggests they have memory, although it may be primitive. However, there’s no clear equivalent of the vertebrate forebrain in them. The head ganglia in these invertebrates may, in some ways, function similarly to the vertebrate brain. Some limited experiments indicate that damaging these head ganglia leads to behavioral decline similar to the loss of mental functions seen when the forebrain in vertebrates is damaged. Therefore, while we can't definitively say that the head ganglia of these invertebrates are morphologically the same as the brains of vertebrates, they seem to serve a similar purpose, performing similar functions, including a basic form of psychosis. Thus, we can refer to the head ganglia of arthropods as a brain, keeping in mind that we're defining it based on physiological evidence rather than morphological characteristics.

Cerebral Control over Lower Nervous Centres.—There accrues to the brain, especially to the fore-brain of higher Vertebrates, another function besides that of grafting psychical qualities upon the reactions of the nervous system. This function is exhibited as power to control in greater or less measure the pure reflexes enacted by the system. These pure reflexes have the character of fatality, in the sense that, given a particular stimulus, a particular reaction unvaryingly follows; the same group of muscles or the same gland is invariably thrown into action in the same way. Removal of the fore-brain, i.e. of that portion of the central nervous organ to which psychosis is adjunct, renders the nervous reactions of the animal more predictable and less variable. The animal, for instance, a dog, is given over more completely to simple reflexes. Its skin is touched and it scratches the spot, its jaw is stroked and it yawns, its rump is rubbed and it shakes itself, like a dog coming out of water; and these reactions occur fatally and inopportunely, for instance, when food is being offered to it, when the dog normally would allow no such insignificant skin stimuli as the above to defer his appropriate reaction. Goltz relates the behaviour of a dog from which almost the whole fore-brain had been removed. The animal lived healthily under the careful treatment accorded it. At feeding time a little quinine (bitter) added to its sop of meat and milk led to the morsels, after being taken into the 405 mouth, being at once and regularly rejected. None was ever swallowed, nor was the slightest hesitation in their rejection ever obtained by any coaxing or command, or encouragement of the animal by the attendant who constantly had charge of it. On the other hand, directly an undoctored piece had entered the mouth it was swallowed at once. Goltz threw to his own house-dog a piece of the same doctored meat. The creature wagged its tail and took it eagerly, then after receiving it into its mouth pulled a wry face and hesitated, astonished. But on encouragement to go on eating it the dog did so. Perhaps it deemed it unseemly to appear ungrateful to the giver and reject the gift. It overcame its reflex of rejection, and by its self-control gave proof of the intact cerebrum it possessed.

Cerebral Control over Lower Nervous Centres.—The brain, particularly the fore-brain in higher vertebrates, has another function beyond just adding mental qualities to the nervous system's reactions. This function allows it to control the pure reflexes performed by the system to varying degrees. These pure reflexes are almost automatic; when a specific stimulus occurs, a specific reaction always follows, engaging the same muscles or glands in the same way. If the fore-brain is removed, i.e. the part of the central nervous system associated with mental processes, the animal's nervous reactions become more predictable and less variable. For example, a dog becomes more reliant on simple reflexes. If its skin is touched, it scratches the spot; if its jaw is stroked, it yawns; if its back is rubbed, it shakes itself like a wet dog. These reactions happen consistently and can be completely inappropriate, like when food is offered, and the dog usually wouldn’t let trivial skin stimuli interfere with its proper response. Goltz describes a dog that had most of its fore-brain removed. The animal remained healthy under careful care. During feeding time, a small amount of quinine (which is bitter) mixed with its meat and milk caused the dog to spit out the pieces immediately after taking them into its mouth. It never swallowed any, nor did it show even the slightest hesitation when rejecting them, regardless of how much coaxing or commands the caretaker used. Conversely, as soon as an unmedicated piece entered its mouth, it was swallowed without hesitation. Goltz threw a piece of the doctored meat to his own house-dog. The dog wagged its tail and eagerly took it, but after putting it in its mouth, it made a face and hesitated, clearly surprised. However, when encouraged to continue eating, the dog complied. It may have thought it was rude to reject the gift from the giver. It overcame its instinct to reject the food, demonstrating the intact cerebrum it still had.

There seems a connexion between consciousness and the power to modify reflex action to meet the exigencies of the occasion. Pure reflexes are admirably adapted to certain ends. They are reactions which have long proved advantageous to the phylum of which the existent animal is the representative embodiment. But the reflexes have a machine-like fatality, and conscious aim does not forerun their execution. The subject as active agent does not direct them. Yet they lie under the control of higher centres. The cough, the eye-closure, the impulse to smile, all these can be suppressed. The innate respiratory rhythm can be modified to meet the requirements of vocal utterance. In other words, the reaction of reflex arcs is controllable by the mechanism to whose activity consciousness is adjunct. The reflexes controlled are often reactions but slightly affecting consciousness, but consciousness is very distinctly operative with the centres which exert the control. It may be that the primary aim, object and purpose of consciousness is control. “Consciousness in a mere automaton,” writes Professor Lloyd Morgan, “is a useless and unnecessary epiphenomenon.” As to how this conscious control is operative on reflexes, how it intrudes its influence on the running of the reflex machinery, little is known.

There seems to be a connection between consciousness and the ability to change reflex actions to fit the needs of a situation. Pure reflexes are perfectly suited for specific purposes. They are responses that have long been beneficial to the species represented by the current animal. However, reflex actions follow a machine-like inevitability, and conscious intention does not precede their execution. The subject, as the active agent, does not control them. Yet, they can be managed by higher brain centers. Coughing, closing one’s eyes, and the impulse to smile can all be suppressed. The natural breathing rhythm can be adjusted to allow for speaking. In other words, reflex arc reactions can be controlled by the systems that consciousness influences. The reflexes that are controlled often involve only minor consciousness effects, but consciousness plays a significant role in the centers that exert that control. It may be that the main goal of consciousness is control. “Consciousness in a mere automaton,” writes Professor Lloyd Morgan, “is a useless and unnecessary epiphenomenon.” Regarding how this conscious control affects reflexes and how it influences the functioning of the reflex system, not much is known.

The Cerebrum an Organ giving Adaptation and Readjustment of Motor Acts.—The exercise of this control and the acquirement of skilled actions have obviously elements in common. By skilled actions, we understand actions not innately given, actions acquired by training in individual experience. The controlling centres pick out from an ancestral motor action some part, and isolate and enhance that until it becomes a skilled act. The motor co-ordination ancestrally provided for the ring finger gives an extending of it only in company with extension of the fingers on either side of it. The isolated lifting of the ring finger can, however, soon be acquired by training. In such cases the higher centre with conscious effort is able to dissociate a part from an ancestral co-ordination, and in that way to add a skilled adapted act to the powers of the individual.

The Cerebrum: An Organ that Enables Adaptation and Readjustment of Motor Actions.—The exercise of this control and the development of skilled actions obviously share some common elements. By skilled actions, we mean actions that aren’t innate but are learned through individual training and experience. The controlling centers identify a portion of an ancestral motor action, isolating and enhancing it until it becomes a skilled act. The motor coordination originally designed for the ring finger allows it to extend only alongside the extension of the fingers next to it. However, the ability to lift the ring finger separately can be quickly learned through training. In these cases, the higher center, with conscious effort, can separate a part from an ancestral coordination, thereby adding a newly skilled action to the individual's abilities.

The nervous organs of control form, therefore, a special instrument of adaptation and of readjustment of reaction, for better accommodation to requirements which may be new. The attainment of more precision and speed in the use of a tool, or the handling of a weapon, means a process in which nervous organs of control modify activities of reflex centres themselves already perfected ancestrally for other though kindred actions. This process of learning is accompanied by conscious effort. The effort consists not so much in any course of reasoning but rather in the acquiring of new sensorimotor experience. To learn swimming or skating by simple cogitation or mere visual observation is of course impossible. The new ideas requisite cannot be constructed without motor experience, and the training must include that motor experience. Hence the training for a new skilled motor manoeuvre must be simply ad hoc, and is of itself no training for another motor co-ordination.

The nervous control systems are, therefore, a unique tool for adapting and readjusting reactions to better meet new requirements. Gaining more precision and speed in using a tool or handling a weapon involves a process where the nervous control systems change the activities of reflex centers that have already been instinctively perfected for other related actions. This learning process requires conscious effort. The effort isn't so much about reasoning but more about gaining new sensorimotor experience. You can't learn to swim or skate just by thinking about it or by observing visually. The new concepts needed can’t be formed without practical motor experience, and the training has to include that hands-on experience. Thus, training for a new skilled motor action needs to be specifically tailored and doesn't serve as training for another type of motor coordination.

The more complex an organism the more points of contact does it have with its environment, and the more does it need readjustment amid an environment of shifting relationships. Hence the organs of consciousness and control, being organs of adaptation and readjustment of reaction, will be more pronounced the farther the animal scale is followed upward to its crowning species, man. The cerebrum and especially the cerebral cortex may be regarded as the highest expression of the nervous organ of individual adaptation of reactions. Its high development in man makes him the most successful animal on earth’s surface at the present epoch. The most important part of all this adjustment in his case, as he stands now, consists doubtless in that nervous activity which is intellectual. The mentality attached to his cerebrum includes reason in higher measure than is possessed by the mentality of other animals. He, therefore, more than they, can profitably forecast the future and act suitably to meet it from memory of the past. The cerebrum has proved itself by his case the most potent weapon existent for extending animal dominance over the environment.

The more complex an organism is, the more it interacts with its environment and the more it needs to readjust to the constantly changing relationships around it. Therefore, the organs responsible for consciousness and control, which help with adaptation and reactive adjustments, become more developed as we move up the animal scale to its highest point, humans. The cerebrum, and especially the cerebral cortex, can be seen as the pinnacle of the nervous system's ability to adapt individual reactions. Its advanced development in humans makes them the most successful species currently living on Earth. A key aspect of this adjustment, in humans, is undoubtedly the nervous activity associated with intellectual thought. The mental capabilities linked to the cerebrum allow humans to reason to a greater extent than other animals. Because of this, humans can better anticipate the future and respond appropriately, drawing on their memories of the past. The cerebrum has proven to be the most powerful tool for enhancing animal dominance over the environment.

Means and Present Aims of Physiological Study of the Brain.—The aspects of cerebral activity are therefore twofold. There is the contribution which it makes to the behaviour of the animal as seen in the creature’s doings. On the other hand there is its product in the psychical life of the animal. The former of these is subject matter for physiology; the latter is especially the province of psychology. Physiology does, however, concern itself with the psychical aspect of cerebral functions. Its scope, embracing the study of the bodily organs in regard to function, includes the psychic as well as the material, because as just shown the former inextricably interlace with the latter. But the relation between the psychic phenomena and the working of the brain in regard to any data of fundamental or intimate character connecting the two remains practically as unknown to us as to the Greek philosophers. What physiology has at present to be content with in this respect is the mere assigning of certain kinds of psychic events to certain local regions of the cerebrum. This primitive quest constitutes the greater part of the “neurology” of our day, and some advance has been made along its lines. Yet how meagre are really significant facts will be clear from the brief survey that follows. Before passing finally from these general considerations, we may note that it becomes more and more clear that the brain, although an organ than can be treated as a whole, is complex in the sense that separable functions belong in some measure to its several parts.

Means and Present Aims of Physiological Study of the Brain.—Cerebral activity has two main aspects. One is its role in the behavior of the animal, evident in the creature’s actions. The other is its effect on the animal's psychological life. The first aspect falls under physiology, while the second is primarily the focus of psychology. However, physiology also considers the psychological side of brain functions. Its scope, which includes the study of body organs in relation to their functions, looks at both the psychological and physical aspects because, as mentioned, the two are deeply interconnected. Yet, the relationship between psychological phenomena and brain activity regarding any fundamental or intimate connections remains largely unknown to us, just as it was to the ancient Greek philosophers. Currently, physiology can only map certain types of psychological events to specific areas of the cerebrum. This basic exploration makes up most of today’s “neurology,” and while some progress has been made, the truly significant findings are quite limited, as will become evident from the brief overview that follows. Before concluding these general observations, it is worth noting that while the brain can be considered as a whole, it is complex in that different functions can be attributed to its various parts.

The means principally adopted in studying the functions of the brain—and it must be remembered that this study in its present phase is almost exclusively a mere search for localization—are four. These are the physiological, the clinico-pathological, the histological and the zoological. The first named proceeds by observing the effects of artificial excitation, chiefly electric, of various parts of the brain, and the defects produced by destruction or removal of circumscribed portions. The clinico-pathological proceeds by observing the disturbances of body and mind occurring in disease or injury, and ascertaining the extent of the disease or injury, for the most part post mortem. The histological method examines the microscopic structure of the various regions of the brain and the characters and arrangement of the nerve-cells composing it. The zoological follows and compares the general features of the brain, as represented in the various types of animal creation.

The main methods used to study how the brain functions—and it's important to note that this current phase of study is largely focused on finding specific locations in the brain—are four. These are physiological, clinico-pathological, histological, and zoological. The physiological method involves observing the effects of artificial stimulation, mainly electrical, on different parts of the brain, as well as the impairments caused by the destruction or removal of specific areas. The clinico-pathological approach looks at the changes in body and mind that occur due to disease or injury, and assesses the extent of these issues, mostly after death. The histological method examines the microscopic structure of different brain regions and the characteristics and arrangement of the nerve cells within them. The zoological method compares the general features of the brain across various types of animals.

It is on the functions of the fore-brain that interest now mainly focuses, for the reasons mentioned above. And the interest in the fore-brain itself chiefly attaches to the functions of its cortex. This is due to several causes. In man and the animals nearest him the cortex forms by far the larger part of the whole cerebral hemisphere. More than any other part it constitutes the distinctively human feature. It lies accessible to various experimental observations, as also to traumatic lesions and to the surgeon’s art. It is composed of a great unbroken sheet of grey matter; for that reason it is a structure wherein processes of peculiar interest for the investigation in view are likely to occur. To make this last inference more clear a reference to the histology of nervous tissue must be made. The whole physiological function of the nervous system may be summed up in the one word “conduction.” This “conduction” may be defined as the transmission of states of excitement (nerve-impulses) along the neural arcs composing the system. The whole nervous system is built up of chains of nerve-cells (neurones) which are nervous conductors, the chains often 406 being termed arcs. Each neurone is an elongated cell which transmits nerve-impulses from its one end to its other, without so far as is known modifying the impulses in transit, unless in that part of the nerve-cell where the nucleus lies. That part of the neurone or nerve-cell is called the perikaryon or cell-body, and from that part usually many branches of the cell (each branch being a nerve-fibre) ramify. There is no evidence that impulses are modified in transit along a branch of a nerve-cell, but there is clear evidence of manifold modification of nerve-impulses in transit along the nerve-arcs of the nervous system. These nerve-arcs are neurone-chains. In them one neurone continues the line of conduction where the immediately foregoing neurone left it. That is, the neurones are laid in conductive series, the far end of one apposed to the near end of its precursor. The place of juxtaposition of the end of one neurone against the beginning of another is called the synapse. At it the conduction which has so far been wholly intra-neuronic is replaced by an inter-neuronic process, in which the nerve impulse passes from one neurone to the next. The process there, it is natural to think, must be physiologically different from that conductive process that serves for transmission merely within the neurone itself. It may be that to this inter-neuronic conduction are due the differences between conduction in nerve-arcs and nerve-trunks (nerve-fibres) respectively. Significant of the former are changes in rhythm, intensity, excitability and modifications by summation and inhibition; in fact a number of the main features of nervous reaction. These characters impressed upon conduction in nerve arcs (neurone-chains) would therefore be traceable to the intercalation of perikarya and synapses, for both these structures are absent from nerve-trunks. It is therefore probably to perikarya and synapses that the greater part of the co-ordination, elaboration and differentiation of nervous reactions is due. Now, perikarya and synapses are not present in the white matter of the central nervous organ, any more than they are in nerve-trunks. They are confined exclusively to those portions of the central organ which consist of grey matter (so called from its naked-eye appearance). Hence it is to the great sheet of grey matter which enfolds the cerebrum that the physiologist turns, as to a field where he would expect to find evidences of the processes of cerebral co-ordination at work. It is therefore to items regarding the functions of the great sheet of cerebral cortex that we may now pass.

The focus of current interest is primarily on the functions of the forebrain, for the reasons mentioned earlier. Most attention is particularly directed at the functions of its cortex. There are several reasons for this. In humans and the animals closest to them, the cortex makes up the majority of the overall cerebral hemisphere. It represents the feature that is most distinctively human. Additionally, it is accessible to various experimental observations, as well as to injuries and surgical interventions. It consists of a large, continuous layer of grey matter; for this reason, it is a structure where interesting processes are likely to occur for our investigation. To clarify this point, we must refer to the histology of nervous tissue. The entire physiological function of the nervous system can be summed up in one word: "conduction." This "conduction" is defined as the transmission of states of excitement (nerve impulses) along the neural pathways that make up the system. The nervous system is made up of chains of nerve cells (neurons) that function as conductors, often referred to as arcs. Each neuron is an elongated cell that transmits nerve impulses from one end to the other without modifying those impulses during transit, except in the part of the nerve cell where the nucleus is located. That portion of the neuron is called the perikaryon or cell body, and from there, multiple branches of the cell (each branch being a nerve fiber) extend. There is no evidence that impulses are modified during travel along a branch of a nerve cell, but there is clear evidence of significant modification of nerve impulses along the nerve arcs of the nervous system. These nerve arcs are chains of neurons. In these, one neuron continues the line of conduction where the preceding neuron ended. In other words, the neurons are arranged in conductive series, with the far end of one neuron connected to the near end of its predecessor. The point of contact between the end of one neuron and the beginning of another is called the synapse. At this junction, the conduction that has previously been entirely within the neuron shifts to an inter-neuronal process, where the nerve impulse transfers from one neuron to the next. It’s reasonable to think that this inter-neuronal conduction is physiologically different from the conductive process that operates solely within the neuron itself. This inter-neuronal conduction may account for the differences between conduction in nerve arcs and nerve trunks (nerve fibers). In the former, significant changes include rhythm, intensity, excitability, and modifications through summation and inhibition; in fact, these account for several of the main features of nervous reactions. These characteristics affecting conduction in nerve arcs (neuron chains) are likely due to the presence of perikarya and synapses, as both structures are absent from nerve trunks. Therefore, it is probably the perikarya and synapses that contribute most significantly to the coordination, elaboration, and differentiation of nervous reactions. Perikarya and synapses are not found in the white matter of the central nervous system, just as they are not in nerve trunks. They are exclusive to those areas of the central system composed of grey matter (named for its appearance to the naked eye). Thus, the physiologist looks to the extensive layer of grey matter enveloping the cerebrum as a field where he would expect to find evidence of the processes of cerebral coordination in action. We can now shift our focus to the functions of this vast sheet of cerebral cortex.

The Cerebral Cortex and its Functions.—The main question which vexed the study of the physiology of the cerebral hemispheres in the 19th century was whether differences of function are detectible in the different regions of the hemisphere and especially in those of its cortex. One camp of experimenters and observers held that the cortex was identical in function throughout its extent. These authorities taught that the various faculties and senses suffer damage in proportion to the amount of cortex removed or injured, and that it is a matter of indifference what may be the particular region wherein the destruction takes place. Against this an opposed set of observers held that different regions perform different functions, and this latter “differential” view was raised in two wholly dissimilar forms in the first and last quarters of the 19th century respectively. In the first quarter of the century, a school, with which the name of Gall is prominently associated, held that each faculty of a set of particular so-called “faculties,” which it assumed constituted intelligence, has in the brain a spatially separate organ proper to itself. Gall’s doctrine had two fundamental propositions. The first was that intelligence resides exclusively in the brain: the second, that intelligence consists of twenty-seven “faculties,” each with a separate local seat in the brain. The first proposition was not new. It is met with in Hippocrates, and it had been elaborated by Descartes and others. But Bichat in his Anatomie generale had partly wandered from the gradually established truth and referred the emotions to the visceral organs, returning to a naive view popularly prevalent. Gall’s first proposition was probably raised especially in reaction against Bichat. But Gall’s proposition was retrograde from the true position of the science of his time. Flourens and others of his contemporaries had already shown not only that intelligence was resident exclusively in the brain, but that it was resident exclusively in that part of the brain which is the fore-brain. Now Gall placed certain of his twenty-seven intellectual faculties in the cerebellum, which is part of the hind-brain.

The Cerebral Cortex and its Functions.—The main question that troubled the study of the physiology of the cerebral hemispheres in the 19th century was whether different functions could be found in various regions of the hemisphere, especially in its cortex. One group of researchers believed that the cortex functioned the same way across its entire area. These experts claimed that the different faculties and senses are affected according to how much cortex is removed or damaged, and that it doesn’t matter which specific region is harmed. Conversely, another group argued that different regions had distinct functions, and this “differential” view appeared in two entirely different forms in the first and last decades of the 19th century. In the early part of the century, a school of thought associated with Gall suggested that each faculty of a specific set of so-called “faculties,” which they believed make up intelligence, has its own distinct organ in the brain. Gall’s theory had two key propositions. The first was that intelligence is solely located in the brain: the second was that intelligence consists of twenty-seven “faculties,” each with its own specific location in the brain. The first proposition was not new; it had been seen in Hippocrates’ work and was elaborated upon by Descartes and others. However, Bichat in his Anatomie generale had somewhat diverged from the established understanding by attributing emotions to the visceral organs, reverting to a simplistic view that was commonly held. Gall’s first proposition was likely a reaction against Bichat. However, Gall’s ideas were a step back from the true understanding of science at that time. Flourens and other contemporaries had already demonstrated not only that intelligence resided exclusively in the brain, but specifically in the fore-brain. Yet, Gall assigned some of his twenty-seven intellectual faculties to the cerebellum, which is part of the hind-brain.

Phrenology.—As to Gall’s second proposition, the set of faculties into which he analysed intelligence shows his power of psychological analysis to have been so weak that it is matter of surprise his doctrine could obtain even the ephemeral vogue it actually did. Among his twenty-seven faculties are, for instance, “l’amour de la progéniture, l’instinct carnassier, l’amitié, la ruse, la sagacité comparative, l’esprit métaphysique, le talent poétique, la mimique,” &c. Such crudity of speculation is remarkable in one who had undoubtedly considerable insight into human character. Each of the twenty-seven faculties had its seat in a part of the brain, and that part of the brain was called its “organ.” The mere spatial juxtaposition or remoteness of these organs one from another in the brain had, according to Gall, an influence on the constitution of the mind. “Comme l’organe des arts est placé loin de l’organe du sens des couleurs, cette circonstance explique pourquoi les peintres d’histoire ont été rarement coloristes.” All these “faculty-organs” were placed by Gall at the surface of the brain. “This explains the correspondence which exists between craniology and the doctrine of the functions of the brain (cerebral physiology), the single aim of my researches.” Gall wrote that he found the bump of pride (la bosse de l’orgueil) as far down in the animal series as the goat. Broussais traced the “organ” of veneration as far down as the sheep. Gall found the bump of murder (bosse du meurtre) in the carnivora. Later it was traced also in herbivora. Broussais added apologetically that “the herbivora cause a real destruction of plants.”

Phrenology.—Regarding Gall’s second point, the way he categorized the faculties of intelligence shows that his ability for psychological analysis was lacking, making it surprising that his theory gained even a brief popularity. Among his twenty-seven faculties are, for example, “love of offspring, predatory instinct, friendship, cunning, comparative insight, metaphysical thinking, poetic talent, mimicry,” etc. This level of speculative thought is striking coming from someone who clearly had considerable insight into human nature. Each of the twenty-seven faculties was thought to have a specific location in the brain, referred to as its “organ.” According to Gall, the physical closeness or distance of these organs in the brain impacted the makeup of the mind. “Since the organ of the arts is located far from the organ of color sense, this explains why historical painters have rarely been skilled in coloring.” Gall positioned all these “faculty-organs” at the surface of the brain. “This explains the link that exists between craniology and the theory of brain functions (cerebral physiology), which is the main goal of my research.” Gall noted that he identified the bump of pride (la bosse de l’orgueil) as low down in the animal hierarchy as the goat. Broussais traced the “organ” of veneration down to the sheep. Gall found the bump of murder (bosse du meurtre) in carnivores, and later it was also found in herbivores. Broussais added with some apology that “herbivores do cause significant damage to plants.”

Gall’s doctrine enjoyed enormous vogue. He himself had the gifts and the demerits of quackery. His doctrine possessed, apart from its falsity, certain other mischievous qualities. “Que ces hommes si glorieux, qui font égorger les nations par millions, sachent qu’ils n’agissent point de leur propre chef, que c’est la nature qui a placé dans leur coeur la rage de la destruction.” One of his scientific opponents rejoined, “Nay, it is not that which they should know. What they should know is that if providence has allowed to man the possibility of doing evil, it has also endowed him with the power to do good.” The main cause of the success of phrenology (q.v.) has been no doubt the common desire of men to read the characters and hidden thoughts of others by external signs. Each bump or “bosse” on the cranium was supposed to indicate the existence and degree of development of one or other of the twenty-seven “faculties.” One such “bosse” showed the development of the organ of “goodness,” and another the development of the organ of “murder.” Such an easy means to arrive at information so curious delighted many persons, and they were not willingly undeceived.

Gall's ideas were hugely popular. He had both the talents and the flaws of a charlatan. His theory, besides its inaccuracies, had some other harmful aspects. “Let those glorious men, who cause nations to be slaughtered by the millions, know that they do not act on their own. It is nature that has instilled in their hearts the rage for destruction.” One of his scientific critics responded, “No, that’s not what they should understand. What they should realize is that if providence has given humans the ability to do evil, it has also given them the power to do good.” The main reason phrenology was so successful was definitely the common human desire to interpret the personalities and hidden thoughts of others through external signs. Each bump or "bosse" on the skull was believed to indicate the presence and level of development of one or another of the twenty-seven "faculties." One of these "bosses" represented the growth of the organ of "goodness," while another indicated the growth of the organ of "murder." This simple method of gaining such fascinating information thrilled many people, and they were reluctant to be disillusioned.

Modern Localization Doctrines.—The crude localization of the phrenologists is therefore too clumsy to possess an interest it might otherwise have had as an early expression of belief in cerebral localization, a belief which other labours have subsequently justified, although on facts and lines quite different from these imagined by Gall and his followers. Patient scientific toil by the hands of E. Hitzig and D. Ferrier and their followers has slowly succeeded in obtaining certain facts about the cortex cerebri which not only show that different regions of it are concerned with different functions, but, for some regions at least, outline to some extent the kind of function exercised. It is true that the greater part of the cortex remains still terra incognita unless we are content with mere descriptive features concerning its coarse anatomy. For several scattered regions some knowledge of their function has been gained by physiological investigation. These scattered regions are the visual, the auditory, the olfactory and the precentral.

Modern Localization Doctrines.—The basic localization ideas of phrenologists are too awkward to retain the interest they might have generated as an early belief in brain localization, a belief that later research has validated, although based on facts and principles quite different from those imagined by Gall and his followers. Patient scientific efforts by E. Hitzig, D. Ferrier, and their successors have gradually led to certain findings about the cortex cerebri, which not only demonstrate that different areas are linked to different functions but also, at least for some areas, hint at the types of functions each area is responsible for. It's true that most of the cortex remains terra incognita unless we only consider its basic anatomical features. For a few specific regions, some understanding of their function has been obtained through physiological research. These specific regions include the visual, auditory, olfactory, and precentral.

The grey matter of the cerebral cortex is broadly characterized histologically by the perikarya (nerve-cells bodies) which lie in it 407 possessing a special shape; they are pyramidal. The dendrite fibres of these cells—that is, their fibres which conduct towards the perikarya—are branches from the apex and corners of the pyramid. From the base often near its middle arises one large fibre—the axone fibre, which conducts impulses away from the perikaryon. The general appearance and arrangement of the neurones in a particle of cortical grey matter are shown in fig. 15, above. The apices of the pyramidal perikarya are turned towards the free surface of the cortex. The figure as interpreted in terms of functional conduction means that the cortex is beset with conductors, each of which collects nerve-impulses, from a minute but relatively wide field by its branched dendrites, and that these nerve-impulses converge through its perikaryon, issue by its axone, and are carried whithersoever the axone runs. In some few cells the axone breaks up into branches in the immediate neighbourhood of its own perikaryon in the cortex. In most cases, however, the axone runs off into the subjacent white matter, leaving the cortex altogether. On reaching the subjacent white matter it mingles with other fibres and takes one of the following courses:—(1) to the grey matter of the cortex of the same hemisphere, (2) to the grey matter of the cortex of the opposite hemisphere, (3) to the grey matter of the pons, (4) to the grey matter of the bulb or spinal cord. It is noteworthy that the dendrite fibres of these cortical neurones do not transgress the limits of the grey cortex and the immediate neighbourhood of the perikaryon to which they belong; whereas the discharging or axone fibre does in the vast majority of cases transgress the limits of the grey matter wherein its perikaryon lies. The cortical neurone therefore collects impulses in the region of cortex just about its perikaryon and discharges them to other regions, some not cortical or even cerebral, but spinal, &c. One question which naturally arises is, do these cells spontaneously generate their impulses or are they stirred to activity by impulses which reach them from without? The tendency of physiology is to regard the actions of the cortex as reactions to impulses communicated to the cortical cells by nerve-channels reaching them from the sense organs. The neurone conductors in the cortex are in so far considered to resemble those of reflex centres, though their reactions are more variable and complex than in the use of the spinal. The chains of neurones passing through the cortex are more complex and connected with greater numbers of associate complex chains than are those of the spinal centres. But just as the reflex centres of the cord are each attached to afferent channels arriving from this or that receptive-organ, for instance, tactile-organs of the skin, or spindles of muscle-sense, &c., so the regions of cortex whose function is to-day with some certainty localized seem to be severally related each to some particular sense-organ. The localization, so far as ascertained, is a localization which attaches separate areas of cortex to the several species of sense, namely the visual, the auditory, the olfactory, and so on. This being so, we should expect to find the sensual representation in the cortex especially marked for the organs of the great distance-receptors, the organs which—considered as sense organs—initiate sensations having the quality of projicience into the sensible environment. The organs of distance-receptors are the olfactory, the visual and the auditory. The environmental agent which acts as stimulus in the case of the first named is chemical, in the second is radiant, and in the last is mechanical.

The grey matter of the cerebral cortex is mainly characterized by the nerve cell bodies (perikarya) found within it, which have a distinct shape; they are pyramidal. The dendrite fibers of these cells—those that carry signals toward the perikarya—branch out from the top and corners of the pyramid. From the base, often near the middle, arises one large fiber—the axon fiber— which carries impulses away from the perikaryon. The overall appearance and arrangement of the neurons in a piece of cortical grey matter are shown in fig. 15 above. The tops of the pyramidal perikarya face the free surface of the cortex. This layout in terms of functional conduction means that the cortex is filled with conductors, each collecting nerve impulses from a small but relatively wide area through its branched dendrites. These nerve impulses converge through the perikaryon, exit through the axon, and are carried wherever the axon extends. In a few cells, the axon branches out near its own perikaryon in the cortex. However, in most cases, the axon extends into the underlying white matter, leaving the cortex completely. Once it reaches the underlying white matter, it mingles with other fibers and takes one of the following paths: (1) to the grey matter of the cortex in the same hemisphere, (2) to the grey matter of the cortex in the opposite hemisphere, (3) to the grey matter of the pons, or (4) to the grey matter of the bulb or spinal cord. It's important to note that the dendrite fibers of these cortical neurons do not extend beyond the grey cortex and the immediate area of their perikaryon, whereas the axon fiber usually does extend beyond the grey matter where its perikaryon is located. Therefore, the cortical neuron collects impulses in the area of the cortex around its perikaryon and sends them to other regions, some of which may not be cortical or even cerebral, but spinal, etc. A question that naturally arises is whether these cells generate their impulses spontaneously or if they’re activated by impulses coming from outside. The general view in physiology is that the actions of the cortex are responses to impulses communicated to the cortical cells by nerve channels coming from the sense organs. The neuron conductors in the cortex are somewhat similar to those in reflex centers, although their responses are more varied and complex compared to those in the spinal cord. The chains of neurons traveling through the cortex are more intricate and linked to larger numbers of associated complex chains than those in the spinal centers. Just as the reflex centers of the spinal cord are connected to input channels from specific sensory organs—like touch receptors in the skin or muscle sense spindles—the cortical regions that are reliably localized today appear to connect with particular sense organs. The localization, as far as determined, associates distinct areas of the cortex with various types of senses, such as visual, auditory, olfactory, and others. Given this, we would expect to find a strong sensory representation in the cortex, especially for the organs of distant receptors—those that, as sense organs, trigger sensations that extend into the immediate environment. The distance receptor organs are the olfactory, visual, and auditory ones. The environmental agent acting as a stimulus for the first is chemical, for the second is radiant, and for the last is mechanical.

Olfactory Region of Cortex.—There is phylogenetic evidence that the development of the cortex cerebri first occurred in connexion with the distance-receptors for chemical stimuli—that is, expressed with reference to psychosis, in connexion with olfaction. The olfactory apparatus even in mammals still exhibits a neural architecture of primitive pattern. The cell which conducts impulses to the brain from the olfactory membrane in the nose resembles cells in the skin of the earthworm, in that its cell-body lies actually amid the epithelium of the skin-surface and is not deeply buried near or in the central nervous organ. Further, it has at its external end tiny hairlets such as occur in specially receptive-cells but not usually in purely nervous cells. Hence we must think that one and the same cell by its external end receives the environmental stimulus and by its deep end excites the central nervous organ. The cell under the stimulation of the environmental agent will therefore generate in itself a nervous impulse. This is the clearest instance we have of a neurone being actually excited under natural circumstances by an agent of the environment directly, not indirectly. The deep ends of these olfactory neurones having entered the central nervous organ come into contact with the dendrites of large neurones, called, from their shape, mitral. In the dog, an animal with high olfactory sense, the axone of each olfactory neurone is connected with five or six mitral cells. In man each olfactory neurone is connected with a single mitral cell only. We may suppose that the former arrangement conduces to intensification of the central reaction by summation. At the same time it is an arrangement which could tend to smother sharp differentiation of the central reaction in respect to locality of stimulus at the receptive surface. Considering the diffuse way in which olfactory stimuli are applied in comparison, for instance, with visual, the exact localization of the former can obviously yield little information of use for locating the exact position of their source. On the other hand, in the case of visual stimuli the locus of incidence, owing to the rectilinear propagation of light, can serve with extraordinary exactitude for inferences as to the position of their source. The adaptation of the neural connexions of the two organs in this respect is therefore in accord with expectation.

Olfactory Region of Cortex.—There is evidence from evolutionary history that the development of the cortex cerebri first happened in relation to the distance receptors for chemical signals—that is, when it comes to psychosis, in relation to smell. Even in mammals, the olfactory system still shows a basic neural structure. The cell that sends signals to the brain from the olfactory membrane in the nose is similar to cells in the skin of an earthworm; its cell body is located within the skin's surface epithelium and is not buried deep near or inside the central nervous system. Additionally, it has tiny hair-like structures at its outer end, which are found in specialized receptor cells but not typically in purely nervous cells. Therefore, we can think of one single cell receiving an external environmental stimulus through one end while the other end excites the central nervous system. When stimulated by the environmental factor, the cell generates a nervous impulse within itself. This is the clearest example we have of a neuron being directly excited by an environmental factor, rather than indirectly. The deep ends of these olfactory neurons that reach the central nervous system connect with the dendrites of large neurons called mitral cells, named for their shape. In dogs, which have a strong sense of smell, the axon of each olfactory neuron connects with five or six mitral cells. In humans, each olfactory neuron connects with only one mitral cell. We can assume that the former setup helps amplify the central response through summation. However, this also means there could be less clear differentiation of the central response regarding the location of the stimulus on the receptive surface. Given the widespread way olfactory stimuli are presented compared to, for example, visual stimuli, the precise localization of smell provides little useful information for pinpointing its source. In contrast, with visual stimuli, because light travels in straight lines, the point of impact can yield highly accurate information about the source's location. Therefore, the adaptation of the neural connections between the two systems aligns with what we expect.

The earliest cerebral cortex is formed in connexion with the neurone-chains coming into the central nervous organ from the patch of olfactory cells on the surface of the head. The region of cerebrum thus developed is the so-called olfactory lobe and hippocampal formation. The greater part of the cerebral hemisphere is often termed the pallium, because as its development extends it folds cloak-wise over the older structures at the base of the brain. The olfactory lobe, from its position, is sometimes called the pallium basale, and the hippocampal formation the pallium marginale; and these two parts of the pallium form what, on account of their phylogenetic history, Elliott Smith well terms the archipallium. A fissure, the limbic fissure, marks off more or less distinctly this archipallium from the rest of the pallium, a remainder which is of later development and therefore designated by Elliott Smith the neopallium. Of the archipallium, the portion which constitutes the olfactory lobe is well formed in the selachian fish. In the reptilian cerebrum the hippocampal region, the pallium marginale, coexists in addition. These are both of them olfactory in function. Even so high up in the animal scale as the lowest mammals they still form one half of the entire pallium. But in the higher apes and in man the olfactory portion of the pallium is but a small fraction of the pallium as a whole. It is indeed so relatively dwarfed and obscured as to be invisible when the brain is regarded from the side or above. The olfactory part of the pallium exhibits little variation in form as traced up through the higher animals. It is of course small in such animals as Cetaceans, which are anosmatic. In highly osmatic such as the dog it is large. The uncus, and subiculum cornu ammonis of the human brain, belong to it. Disease of these parts has been accompanied by disturbance of the sense of smell. When stimulated electrically (in the rabbit) the olfactory pallium occasions peculiar torsion of the nose and lips (Ferrier), and change, often slowing or arrested, of the respiratory rhythm. P.E. Flechsig has shown that the nerve-fibres of this part of the pallium attain the final stage of their growth, that is to say, acquire their sheaths of myelin, early in the ontogenetic development of the brain. In the human brain they are myelinate before birth. This is significant from the point of view of function, for reasons which have been made clear especially by the researches of Flechsig himself.

The earliest cerebral cortex forms in connection with the neuron chains coming into the central nervous system from the patch of olfactory cells on the surface of the head. The region of the brain that develops in this way is called the olfactory lobe and hippocampal formation. Most of the cerebral hemisphere is often referred to as the pallium, because as it develops, it folds over the older structures at the base of the brain like a cloak. The olfactory lobe, due to its position, is sometimes called the pallium basale, and the hippocampal formation is termed the pallium marginale; together, these two parts of the pallium form what Elliott Smith aptly calls the archipallium because of their evolutionary history. A groove, the limbic fissure, more or less distinctly separates this archipallium from the rest of the pallium, which developed later and is therefore referred to by Elliott Smith as the neopallium. Within the archipallium, the part that makes up the olfactory lobe is well developed in selachian fish. In the reptilian brain, the hippocampal region, the pallium marginale, is also present. Both regions function in olfaction. Even in the lower mammals, they still make up half of the entire pallium. However, in higher apes and humans, the olfactory part of the pallium is just a small fraction of the whole pallium. It's so relatively small and obscured that it becomes invisible when viewing the brain from the side or above. The olfactory part of the pallium shows little variation in shape as we look at higher animals. It is, of course, small in animals like cetaceans, which are anosmatic. In highly olfactory animals such as dogs, it is large. The uncus and subiculum cornu ammonis of the human brain are part of it. Diseases affecting these areas have been linked to disturbances in the sense of smell. When stimulated electrically (in rabbits), the olfactory pallium causes unusual twisting of the nose and lips (Ferrier), and changes, often slowing or stopping, in the respiratory rhythm. P.E. Flechsig has shown that the nerve fibers in this part of the pallium reach the final stage of their growth, meaning they develop their myelin sheaths, early in the brain's development. In the human brain, they are myelinated before birth. This is noteworthy from a functional perspective, for reasons clarified especially by Flechsig's own research.

The completion of the growth of the nerve-fibres entering and leaving the cortex occurs at very various periods in the growth of the brain. Study of the development of the fibres entering and leaving the various regions of the pallium in the human brain, discovers that the regions may be conveniently grouped into those whose fibres are perfected before birth and those whose fibres are perfected during the first post-natal month, 408 and those whose fibres are perfected after the first but before the end of the fourth post-natal month. The regions thus marked out by completion before birth are five in number, and are each connected, as also shown by collateral evidence, with one or other particular species of sense-organ. And these regions have another character in common recognizable in the nerve-fibres entering and leaving them, namely, they possess fibres projected to or from parts of the nervous system altogether outside the cortex itself. These fibres are termed “projection” fibres. Other regions of the cortex possess fibres coming from or going to various regions of the cortex itself, but do not possess in addition, as do the five primitive cortical fields, the fibres of projection. So that the facts established by Flechsig for the regions of pallium, which other evidence already indicated as connected with the sense-organ of smell, support that evidence and bring the olfactory region of cortex into line with certain other regions of cortex similarly primarily connected with organs of sense.

The growth of the nerve fibers that enter and leave the cortex happens at different times during brain development. Research on the development of these fibers in various areas of the human brain shows that we can categorize them into those that are fully formed before birth, those that develop during the first month after birth, and those that are completed after the first month but before the end of the fourth month post-birth. The five regions that are fully developed before birth are also linked, as additional evidence suggests, to specific types of sense organs. These regions share a common feature in the nerve fibers that enter and exit them; they have fibers that connect to parts of the nervous system that are completely outside the cortex itself. These fibers are called “projection” fibers. Other areas of the cortex have fibers that connect to different regions within the cortex but lack the projection fibers found in the five primary cortical areas. Therefore, the findings established by Flechsig regarding the regions of the pallium, which other evidence has already associated with the sense of smell, reinforce that evidence and align the olfactory cortex region with several other regions of the cortex that are similarly connected to sense organs.

It will be noted that what has been achieved by these various means of study in regard to the region of the cortex to which olfactory functions are attributed amounts at present to little more than the bare ascertainment of the existence there of nervous mechanisms connected with olfaction, and to the delimiting roughly of their extent and of their ability to influence certain movements, and in man sensations, habitually associated with exercise of the olfactory organ. As to what part the cortical mechanism has in the elaboration or association of mental processes to which olfaction contributes, no evidence worth the name seems as yet forthcoming. In this respect our knowledge, or rather our want of knowledge, of the functions of the olfactory region of the cortex, is fairly typical of that to which we have to confess in regard to the other regions of the cortex, even the best known.

It should be noted that what has been accomplished through these various methods of study concerning the area of the cortex linked to olfactory functions is currently just a basic understanding of the existence of nervous mechanisms associated with smell. We have roughly outlined their extent and their ability to influence certain movements, and in humans, sensations typically related to the use of the olfactory organ. However, regarding the role of the cortical mechanism in the development or connection of mental processes related to smell, no significant evidence has emerged so far. In this regard, our knowledge—or rather, our lack of knowledge—about the functions of the olfactory region of the cortex is quite typical of what we must admit about other regions of the cortex, even the ones we know best.

Visual Region of the Cortex.—There is a region of the cortex especially connected with vision. The optic nerve and tract constitute the second link in the chain of neurones joining the retina to the brain. They may therefore be regarded as the equivalent of an intraspinal tract connecting the deep ends of the afferent neurones from the skin with higher nervous centres. In the bony fishes the optic tract reaches the grey matter of the optic lobe, a part of the mid-brain, to which the so-called anterior colliculus is equivalent in the mammalian brain. In the optic lobe the axones of the neurones of the optic tract meet neurones whose axones pass in turn to the motor neurones of the muscles moving the eyeballs, and also to other motor neurones. But in these fish the optic tract has no obvious connexion with the fore-brain or with any cerebral pallium. Ascending, however, to the reptilian brain is found an additional arrangement: a small portion of the optic tract passes to grey matter in front of the optic lobe. This grey matter is the lateral geniculate body. From this geniculate body a number of neurones extend to the pallial portion of the cerebrum, for in the reptilian brain the pallium is present. The portion of pallium connected with the lateral geniculate body lies above and behind the olfactory or archipallium. It is a part of what was mentioned above as neopallium.

Visual Region of the Cortex.—There is a part of the cortex that is specifically linked to vision. The optic nerve and tract make up the second connection in the series of neurons linking the retina to the brain. They can, therefore, be seen as the equivalent of an intraspinal tract that connects the deep ends of the sensory neurons from the skin with higher nervous centers. In bony fish, the optic tract reaches the gray matter of the optic lobe, which is part of the mid-brain and is equivalent to the so-called anterior colliculus in the mammalian brain. In the optic lobe, the axons of the neurons in the optic tract connect with neurons whose axons then lead to the motor neurons that control the muscles moving the eyeballs, as well as to other motor neurons. However, in these fish, the optic tract does not have a clear connection to the forebrain or any cerebral cortex. As we move up to the reptilian brain, there's an additional arrangement: a small part of the optic tract passes to gray matter in front of the optic lobe. This gray matter is the lateral geniculate body. From this geniculate body, several neurons extend to the cortical area of the cerebrum, as the reptilian brain does have a cortex. The part of the cortex connected with the lateral geniculate body lies above and behind the olfactory or archipallium. It is a part of what was referred to previously as neopallium.

In the mammalian brain the portion of the optic tract which goes to the optic lobe (ant. colliculus of the mammal) is dwarfed by great development of the part which goes to the geniculate body and an adjoining grey mass, the pulvinar (part of the optic thalamus). From these latter pass large bands of fibres to the occipital region of the neopallium. In mammals this visual region of the cortex is distinguished in its microscopic features from the cortex elsewhere by a layer of myelinate nerve-fibres, many of which are the axones of neurones of the geniculate body and pulvinar. Thus, whereas in the bony fishes all the third links of the conductive chain from the retina lead exclusively to the final neurones of motor centres for muscles, in the mammal the majority of the third links conduct to grey matter of the cortex cerebri.

In the mammalian brain, the part of the optic tract that goes to the optic lobe (the anterior colliculus of mammals) is much smaller compared to the well-developed section that connects to the geniculate body and a nearby gray mass called the pulvinar (a part of the optic thalamus). From these areas, large bands of fibers extend to the occipital region of the neopallium. In mammals, this visual region of the cortex is microscopically distinct from other parts of the cortex because it has a layer of myelinated nerve fibers, many of which are the axons of neurons from the geniculate body and pulvinar. Thus, while in bony fish all the third links in the chain of neural signals from the retina lead solely to the final neurons of motor centers for muscles, in mammals, the majority of these third links connect to the gray matter of the cerebral cortex.

The application of electric stimuli to the surface of the cortex does not for the greater part of the extent of the cortex evoke in higher mammalian brains any obvious effect; no muscular act is provoked. But from certain limited regions of the cortex such stimulation does evoke muscular acts, and one of these regions is that to which the neurones forming the third link of the conductive chain from the retina pass. The muscular acts thus provoked from that region are movements of the eyeballs and of the neck turning the head. In the monkey the movement is the turning of both eyeballs and the head away from the side stimulated. In short, the gaze is directed as to an object on the opposite side. The newer conductive chain traceable through the cortex does therefore, after all, like the older one through the optic lobe, lead ultimately to the motor neurones of the eye muscles and the neck, only it takes a longer course thither and is undoubtedly much more complex. What gain is effected by this new and as it were alternative and longer route, which takes a path up to the cerebral cortex and down again, we can only conjecture, but of one point we may rest well assured, namely, that a much richer inter-connexion with other arcs of the nervous system is obtained by the path that passes via the cortex. The functional difference between the old conductive circuit and the new can at present hardly indeed be stated even in outline. A natural inference might be that the phylogenetically older and less complex path is concerned with functions purely reflex-motor, not possessing sensation as an attribute. But fish, which possess only the older path, can be trained to seize bait of one colour and not of another colour, even against what appeared to be an original colour-preference in them. Such discrimination individually acquired seems to involve memory, though it may be rudimentary in kind. Where motor reaction to visual stimuli appears to involve memory—and without memory the training could hardly be effective—some germ of consciousness can hardly be denied to the visual reactions, although the reactions occurred in complete absence of a cortical path and indeed of a visual cortex altogether.

The use of electric stimuli on the surface of the cortex mostly doesn't produce any noticeable effect in higher mammalian brains; no muscular action occurs. However, from certain specific areas of the cortex, such stimulation does trigger muscular actions, and one of these areas is where the neurons that form the third link of the conductive chain from the retina connect. The muscular actions triggered from that area involve movements of the eyeballs and the neck to turn the head. In monkeys, this results in both eyeballs and the head turning away from the stimulated side. Essentially, the gaze shifts to focus on an object on the opposite side. The newer conductive chain traced through the cortex ultimately connects to the motor neurons of the eye muscles and neck, but it takes a longer and more complex route. What benefits come from this new, alternative, and longer path—one that goes up to the cerebral cortex and back down again—can only be speculated upon. However, we can confidently say that this route provides much richer connections with other parts of the nervous system. The functional difference between the old conductive circuit and this new one is difficult to outline at this point. One might reasonably conclude that the older, simpler path is related to purely reflexive motor functions without any sensory attributes. Yet, fish, which only have the older path, can be trained to respond to bait of one color and ignore another color, even overriding what seemed like a natural color preference. This type of learned discrimination appears to involve some memory, albeit rudimentary. When motor reactions to visual stimuli seem to require memory—since without memory, training wouldn’t work effectively—it’s hard to deny that there’s a basic form of consciousness related to these visual reactions, even in the absence of a cortical path or visual cortex altogether.

Removal of the visual pallium in the tortoise produces little or no obvious defect in vision; but in the bird such a lesion greatly impairs the vision of the eye of the side opposite to the lesion. The impairment does not, however, amount to absolute blindness. Schrader’s hawk, after removal of the pallium, reacted to movements of the mice with which it was caged. But the reactions were impaired: they lacked the sustained purpose of the normal reactions. The bird saw the mice; that was certain, for their movements across its field of vision made it turn its gaze towards them. But on their ceasing to move, the reaction on the part of the bird lapsed. Neither did their continuing to move excite the attack upon them which would have been the natural reaction on the part of the bird of prey towards its food. The bird apparently did not recognize them as prey, but saw them merely as moving objects. It saw them perhaps as things to which mental association gave no significance. Similarly, a dog after ablation of the occipital lobes of the cortex is able to see, for it avoids obstacles in its path; but if food is offered to it or the whip held up to it, it does not turn towards the food or away from the whip. It sees these things as if it saw them for the first time, but without curiosity, and as if it had no experience of their meaning. It gives no hint that it any longer understands the meaning of even familiar objects so long as these are presented to it through the sense of vision. Destruction of the visual cortex of one hemisphere alone produces in the dog impairment of vision, not as in the bird practically exclusively in the opposite eye, but in one lateral half of each eye, and that half the half opposite the hemisphere injured. Thus when the cortex destroyed is of the right cerebral hemisphere, the resultant visual defect is in the left half of the field of vision of both eyes. And this is so in man also.

Removing the visual pallium in a tortoise results in little or no obvious vision issues, but doing the same in a bird significantly affects the vision of the eye on the opposite side of the injury. However, this impairment doesn’t lead to complete blindness. After the pallium was removed, Schrader’s hawk still reacted to the movements of the mice it was housed with. The reactions were diminished, lacking the sustained focus that normal reactions would show. The bird definitely saw the mice, as their movements in its line of sight prompted it to look toward them. But when the mice stopped moving, the bird's response faded away. Even if the mice continued moving, the bird didn’t exhibit the natural instinct to attack them as a predator would when it sees potential food. It seemed to view the mice merely as moving objects rather than recognizing them as prey, seeing them perhaps as things without any significant mental association. In the same way, a dog with removed occipital lobes can still see since it avoids obstacles in its way; however, when food is offered or a whip is raised, it doesn’t respond to either. The dog perceives these objects as if it’s seeing them for the first time, but without any curiosity and as if it has no understanding of what they mean. It shows no signs of recognizing even familiar objects when they’re presented visually. When only one hemisphere of the visual cortex is destroyed in a dog, it results in impaired vision, but unlike in birds, this impairment affects one lateral half of each eye within the field of vision corresponding to the injured hemisphere. Thus, if the damaged area is in the right cerebral hemisphere, the visual defect appears in the left half of the visual field for both eyes. This also applies to humans.

In man disturbances of sensation can be better studied because it is possible to obtain from him his description of his condition. The relation of the cortex cerebri to human vision can be summarized briefly as follows. The visual cortex is distinguishable in higher mammals by a thin white stripe, the stripe of Gennari, seen in its grey matter when that is sectioned. This stripe results from a layer of nerve-fibres, many of which are 409 axones from the neurones of the lateral geniculate body and the pulvinar, the grey masses directly connected with the optic nerve-fibres. In the dog, and in such monkeys as the Macaque, the region of cortex containing this stripe traceable to optic fibres forms practically the whole occipital lobe. But in the man-like apes and in man this kind of cortex is confined to one region of the occipital lobe, namely, that of the calcarine fissure and the cuneus behind that. This region of cortex thus delimited in man is one of Flechsig’s areas of earlier myelinization. It is also one of his areas possessing projection fibres; and this last fact agrees with the yielding by this area, when under electrical stimulation, of movements indicating that impulses have been discharged from it into the motor neurones of the muscles of the eyes and neck. Evidence from cases of disease show that destruction of the cortex of the upper lip of the calcarine fissure, say in the right half of the brain, causes in man impairment in the upper right-hand quadrant of both retinae: destruction of the lower lip of the fissure causes impairment in the lower right-hand quadrants. Destruction of the calcarine region of one hemisphere produces therefore “crossed hemianopia,” that is, loss of the opposite half of the field of vision. But in this hemianopia the region of central vision is always spared. That is, the piece of visual field which corresponds with the yellow spot of the retina is not affected in either eye, unless the calcarine regions of both hemispheres are destroyed. This central point of vision is connected therefore not with one side of the brain only but with both.

In humans, disturbances in sensation can be more easily studied because we can get his account of his condition. The relationship between the cortex and human vision can be summarized as follows: The visual cortex in higher mammals has a thin white stripe, known as the stripe of Gennari, which can be seen in its grey matter when it is cut. This stripe arises from a layer of nerve fibers, many of which are axons from the neurons of the lateral geniculate body and the pulvinar, the grey areas that are directly connected with the optic nerve fibers. In dogs, and in monkeys like the Macaque, the cortex region that contains this stripe from optic fibers makes up most of the occipital lobe. However, in humans and human-like apes, this type of cortex is limited to a specific area of the occipital lobe, specifically the calcarine fissure and the cuneus behind it. This defined area of cortex in humans corresponds to one of Flechsig’s areas of earlier myelinization and is also one of his areas that has projection fibers. This aligns with the fact that when this area is electrically stimulated, it results in movements showing that impulses have been sent to the motor neurons controlling the eye and neck muscles. Evidence from disease cases shows that damage to the cortex in the upper part of the calcarine fissure, particularly in the right side of the brain, leads to impairment in the upper right quadrant of both retinas: damage to the lower part of the fissure affects the lower right quadrants. Damage to the calcarine region in one hemisphere causes “crossed hemianopia,” meaning the loss of the opposite half of the visual field. However, in this hemianopia, the central vision area is always intact. This means that the part of the visual field that corresponds to the yellow spot of the retina remains unaffected in either eye unless the calcarine areas in both hemispheres are damaged. Therefore, this central vision point connects to both sides of the brain.

The impairment of sight is more severe in men than in lower animals. Where the destruction of the visuo-sensory cortex in one calcarine region is complete, a candle-flame offered in the hemianopic field cannot even be perceived. It may hardly excite a reflex contraction of the pupil. In such cases the visual defect amounts to blindness. But this is a greater defect than is found in the dog even after entire removal of both occipital lobes. The dog still avoids obstacles as it walks. Its defect is rather, as said above, a complete loss of interest in the visual images of things. But a dog or monkey after loss of the visual cortex hesitates more and avoids obstacles less well in a familiar place than it does when entirely blind from loss of the peripheral organ of vision. In man extensive destruction of the visual cortex has as one of its symptoms loss of memory of localities, thus, of the paths of a garden, of the position of furniture, and of accustomed objects in the patient’s own room. This loss of memory of position does not extend to spatial relations ordinarily appreciated by touch, such as parts of the patient’s own person or clothing. There is nothing like this in the symptoms following blindness by loss of the eye itself. Those who lose their sight by disease of the retina retain good memorial pictures of positions and directions appreciated primarily by vision.

The loss of sight is worse in men than in lower animals. When the visuo-sensory cortex in one area of the calcarine is completely destroyed, a candle flame placed in the blind part of the visual field can't even be noticed. It might hardly trigger a reflex contraction of the pupil. In these cases, the visual impairment is essentially blindness. However, this level of impairment is more significant than what is seen in dogs, even if both occipital lobes are completely removed. A dog still navigates around obstacles while walking. The deficit is, as mentioned, more of a complete disinterest in visual images. But a dog or monkey that loses the visual cortex shows more hesitation and has more trouble avoiding obstacles in a familiar area than one that is completely blind due to the loss of the eye itself. In humans, significant damage to the visual cortex results in a symptom of losing memory of locations, such as the layout of a garden, the arrangement of furniture, and the familiar objects in their room. This loss of spatial memory does not affect the ability to perceive spatial relations typically understood through touch, like parts of their own body or clothing. There’s nothing similar in the symptoms that follow blindness from losing the eye. Those who go blind due to retina disease still maintain clear mental images of positions and directions that they primarily understood through vision.

Cases of disease are on record in which loss of visual memory has occurred without hemianopia. Visual hallucinations referred to the hemianopic side have been observed. This suggests that the function of visual memory in regard to certain kinds of percepts must belong to localities of cortex different from those pertaining to other visual percepts. The area of cortex characterized by the stripe of Gennari occupies in man, as mentioned, the calcarine and cuneate region. It is surrounded by a cortical field which, though intimately connected with it by manifold conducting fibres, &c., is yet on various grounds distinct from it. This field of cortex surrounding the visuo-sensory of the calcarine-cuneate region is a far newer part of the neopallium than the region it surrounds. Both in the individual (Flechsig) and in the phylum (Bolton, Campbell, Mott) its development occurs far later than that of the visuo-sensory which it surrounds. Flechsig finds that it has no “projection” fibres, that is, that it receives none of the optic radiations from the lower visual centres and gives no centrifugal fibres in the reverse direction. This field encompassing the visuo-sensory region differs from the latter in its microscopic structure by absence of the lower layer of stellate cells and by the presence in it of a third or deep layer of pyramidal cells (Mott). Its fibres are on the average smaller than are those of the visuo-sensory (W.A. Campbell). This zonal field is small in the lower apes, and hardly discoverable in the dog. In the anthropoid apes it is much larger. In man it is relatively much larger still. The impairment of visual memory and visual understanding in regard to direction and locality is said to be observed in man only when the injury of the cortex includes not only the calcarine-cuneate region but a wide area of the occipital lobe. From this it is argued that the zonal field is concerned with memories and recognitions of a kind based on visual perceptions. It has therefore been termed the visuo-psychic area. It is one of Flechsig’s “association-areas” of the cortex.

Cases of disease have been documented where loss of visual memory occurred without hemianopia. Visual hallucinations associated with the hemianopic side have been noted. This indicates that the function of visual memory related to specific types of perceptions must belong to areas of the cortex that are different from those associated with other visual perceptions. The part of the cortex marked by the stripe of Gennari is located in humans, as mentioned, in the calcarine and cuneate regions. It is surrounded by a cortical area that, while closely linked to it through numerous connecting fibers, is distinct for various reasons. This area of cortex surrounding the visual-sensory part of the calcarine-cuneate region is a more recent addition to the neopallium compared to the region it encloses. Both in individuals (Flechsig) and across species (Bolton, Campbell, Mott), its development occurs much later than that of the visual-sensory area it surrounds. Flechsig found that it lacks “projection” fibers, meaning it does not receive any optic radiations from the lower visual centers and does not send any centrifugal fibers back in the opposite direction. This area surrounding the visual-sensory region differs from the latter in its microscopic structure by the absence of the lower layer of stellate cells and by containing a third or deeper layer of pyramidal cells (Mott). Its fibers are generally smaller than those of the visual-sensory area (W.A. Campbell). This zonal field is small in lower apes and nearly undetectable in dogs. In anthropoid apes, it is much larger, and in humans, it is relatively even larger. Impairment of visual memory and understanding regarding direction and location is said to be observed in humans only when the damage to the cortex includes not just the calcarine-cuneate region but a large area of the occipital lobe. This leads to the conclusion that the zonal field is involved in memories and recognitions based on visual perceptions. It has therefore been labeled the visuo-psychic area. It is one of Flechsig’s “association areas” of the cortex.

Adjoining the antero-lateral border of the just-described visuo-psychic area lies another region separate from it and yet related to it. This area is even later in its course of development than is the visuo-psychic. It is one of Flechsig’s “terminal fields,” and its fibres are among the last to ripen in the whole cortex. This terminal field is large in man. It runs forward in the parietal lobe above and in the temporal lobe below. Its wide extent explains, in the opinion of Mott, the displacement of the visuo-sensory field from the outer aspect of the hemisphere in the lower monkeys to the median aspect in man. To this terminal field all the more interest attaches because it includes the angular gyrus, which authorities hold to be concerned with the visual memory of words. Study of diseased conditions of speech has shown that the power to understand written words may be lost or severely impaired although the words may be perfectly distinct to the sight and although the power to understand heard words remains good. This condition is asserted by many physicians to be referable to destruction of part of the angular gyrus. Close beneath the cortex of the angular gyrus runs a large tract of long fibres which pass from the visual cortex (see above) to the auditory cortex (see below) in the superior temporal gyrus and to the lower part of the frontal lobe. This lower part of the frontal lobe is believed—and has long been believed—to be concerned intimately with the production of the movements of speech. A difficulty besetting the investigation of the function of the angular gyrus is the fact that lesion of the cortex there is likely to implicate the underlying tract of fibres in its damage. It cannot be considered to have been as yet clearly ascertained whether the condition of want of recognition of seen words—”word-blindness”—is due to cortical injury apart from subcortical, to the angular gyrus itself apart from the underlying tract. Word-blindness seems, in the right-handed, to resemble the aphasia believed to be connected with the lower part of the frontal lobe, in that it ensues upon lesions of the left hemisphere, not of the right. In left-handed persons, on the contrary, it seems to attach to the right hemisphere.

Next to the antero-lateral border of the previously described visuo-psychic area is another region that is distinct yet connected to it. This area develops later than the visuo-psychic region. It is one of Flechsig’s “terminal fields,” and its fibers are some of the last to mature in the entire cortex. This terminal field is significant in humans. It extends forward in the parietal lobe above and in the temporal lobe below. Its broad reach explains, according to Mott, the shift of the visuo-sensory field from the outer part of the hemisphere in lower primates to the median part in humans. This terminal field is particularly interesting because it contains the angular gyrus, which experts believe is involved in the visual memory of words. Research on speech disorders has revealed that the ability to understand written words can be lost or significantly impaired, even though the words may be clearly visible and the ability to understand spoken words remains intact. Many doctors attribute this condition to damage in part of the angular gyrus. Just below the cortex of the angular gyrus is a large bundle of long fibers that connects the visual cortex (see above) to the auditory cortex (see below) in the superior temporal gyrus and to the lower part of the frontal lobe. This lower part of the frontal lobe is thought—and has long been believed—to be closely involved in producing speech movements. A challenge in studying the function of the angular gyrus is that damage to the cortex there often affects the underlying fiber tract. It hasn’t yet been clearly established whether the inability to recognize written words—known as “word-blindness”—is due to direct cortical injury separate from subcortical damage, or if it’s related to the angular gyrus itself versus the underlying tract. In right-handed individuals, word-blindness appears to be similar to the aphasia linked to the lower part of the frontal lobe, as it occurs following lesions in the left hemisphere, not the right. In contrast, in left-handed people, it seems to relate to the right hemisphere.

Auditory Region of the Cortex.—Besides the two great organs of distance-receptors, namely, the nose and eye, whose cerebral apparatus for sensation has just been mentioned, those of a third great distance-receptor have to be considered. The agents of stimulation of the two former are respectively chemical (olfactory) and radiant (visual); the mode of stimulation of the third is mechanical, and the sensations obtained by it are termed auditory. Their cerebral localization is very imperfectly ascertained. Electric stimuli applied to a part of the uppermost temporal gyrus excites movements of the ears and eyes in the dog. Destruction of the same region when executed on both hemispheres is argued by several observers to impair the sense of hearing. To this region of cortex fibres have been traced from the lower centres connected with the nerve-fibres coming from the cochlea of the ear. From each cochlear nerve a path has been traced which passes to the insulae and the above-mentioned temporal region of cortex of both the cerebral hemispheres. The insula is a deeper-seated area of cortex adjoining the uppermost temporal convolution. To it Flechsig’s chronological studies also impute a connexion with the nerves of the ear. Early myelinization of fibres, presence of ascending and descending “projection” tracts to and from lower centres outside the cortex, calibre of fibres, microscopic characters of its cortical cells, all those kinds of indirect items of evidence that obtain 410 for the visual cortex likewise mark out this insular-temporal area as connected fairly directly with a special sense-organ, as in fact a sensory field of the cortex; and the suspicion is that it is auditory. Clinical observation supports the view in a striking way, but one requiring, in the opinion of some, further confirmation. It is widely believed that destruction of the upper and middle part of the uppermost temporal convolution produces “word-deafness,” that is, an inability to recognize familiar words when heard, although the words are recognized when seen.

Auditory Region of the Cortex.—In addition to the two major organs for sensing distance, the nose and eye, which we've just discussed, we also need to look at a third major distance-sensing organ. The first two are stimulated by chemical (olfactory) and radiant (visual) means, while the motivation behind the third is mechanical, leading to what we call auditory sensations. The exact location of these sensations in the brain isn't completely understood. When electric stimuli are applied to the uppermost temporal gyrus, it causes movements of the ears and eyes in dogs. Some researchers suggest that damaging the same area in both brain hemispheres can impair hearing. Fibers have been traced from the lower centers to this region of the cortex, connecting with the nerve fibers coming from the cochlea of the ear. A pathway has been found from each cochlear nerve that leads to the insulae and the previously mentioned temporal region of the cortex in both hemispheres. The insula is a deeper part of the cortex adjacent to the uppermost temporal convolution. Flechsig's chronological studies also link it with the ear's nerves. The early myelination of fibers, the presence of ascending and descending “projection” tracts to and from lower centers outside the cortex, the size of the fibers, and the microscopic characteristics of the cortical cells all provide indirect evidence that this insular-temporal area is closely tied to a specific sense organ, likely being a sensory field of the cortex associated with hearing. Clinical observations strongly support this idea, but some believe it needs further confirmation. It's widely thought that damaging the upper and middle portions of the uppermost temporal convolution causes “word-deafness,” meaning a person cannot recognize familiar words when they are heard, even though they can recognize them when seen.

More precise information regarding this auditory region of the cortex has recently been obtained by the experiments of Kalischer. These show that after removal of this region from both sides of the brain in the dog the animal shows great defect in answering to the call of its master. Whereas prior to the operation the animal will prick its ears and attend at once to the lightest call, it requires after the removal of the auditory regions great loudness and insistence of calling to make it attend and react as it did. This is the more striking in view of other experimental results obtained. Kalischer trained a number of his dogs not to take meat offered them except at the sound of a particular note given by an organ pipe or a harmonium. The dogs rapidly learned not to take the food on the sounding of notes of other pitch than the one taught them as the permissive signal. This reaction on the part of the animal was not impaired by the removal of the so-called auditory regions of the cortex. Kalischer suggests that this reaction taught by training is not destroyed by the operation which so greatly impairs the common reaction to the master’s call, because the former is a simpler process more allied to reflex action. In it the attention of the dog is already fastened upon the object, namely the food, and the stimulus given by the note excites a reaction which simply allows the act of seizing the food to take place, or on the other hand stops it. In the case of answering the call of the master the stimulus has to excite attention, to produce perception of the locality whence it comes, and to invoke a complicated series of movements of response. He finds that destruction of the posterior colliculi of the mid-brain, which have long been known to be in some way connected with hearing, likewise destroys the response to the call of the master, but did not destroy the trick taught to his dogs of taking meat offered at the sound of a note of one particular pitch but not at notes of other pitch given by the same instrument.

More specific information about this area of the auditory cortex has recently been gathered through experiments conducted by Kalischer. His findings show that after this region is removed from both sides of a dog's brain, the animal has significant difficulty responding to its owner's call. Before the operation, the dog would perk up its ears and respond immediately to even the slightest call, but after the removal of the auditory regions, it requires loud and persistent calling to get its attention and elicit a reaction. This becomes even more notable when considering other experimental results. Kalischer trained several dogs not to take meat offered to them unless they heard a certain note played on an organ pipe or a harmonium. The dogs quickly learned not to take the food when different pitches were played that weren’t the designated signal. The removal of the so-called auditory regions of the cortex did not impair this learned response in the dogs. Kalischer suggests that this learned reaction is not affected by the operation that severely disrupts the general reaction to the owner's call because it is a simpler process more akin to reflex action. In this case, the dog's attention is already focused on the food, and the note acts as a trigger that either allows the dog to grab the food or prevents it from doing so. In contrast, responding to the owner's call requires the stimulus to capture the dog’s attention, create an awareness of where the sound is coming from, and initiate a complex series of movements. He also found that damaging the posterior colliculi in the midbrain, which is known to have links with hearing, also disrupts the response to the owner's call, yet it does not eliminate the trick he taught his dogs of taking meat offered at the sound of a specific note while ignoring other pitches from the same instrument.

Other Senses and Localization in the Cortex Cerebri.—Turning now to the connexion between the function of the cortex and the senses other than those of the great distance-receptors just dealt with, even less is known. Disturbance and impairment of skin sensations are observable both in experiments on the cerebrum of animals and in cases of cerebral disease in man. But the localization in the cortex of regions specially or mainly concerned with cutaneous sensation has not been made sufficiently clear to warrant statement here. Still less is there satisfactory knowledge regarding the existence of cortical areas concerned with sensations originated in the alimentary canal. The least equivocal of such evidence regards the sense of taste. There is some slight evidence of a connexion between this sense and a region of the hippocampal gyrus near to but behind that related to smell.

Other Senses and Localization in the Cerebral Cortex.—Now, let's look at the connection between the function of the cortex and other senses beyond the major distance receptors we've just discussed; even less is known in this area. There are observable disturbances and impairments in skin sensations both in experiments conducted on the cerebrum of animals and in cases of brain diseases in humans. However, the specific regions in the cortex that are mainly focused on touch have not been clearly defined enough to make any definitive statements. There is even less reliable information about cortical areas that are involved with sensations from the digestive system. The clearest evidence pertains to the sense of taste. There is some slight indication of a connection between this sense and a region of the hippocampal gyrus that is located near, but behind, the area associated with smell.

As to the sensations excited by the numerous receptors which lie not in any of the surface membranes of the body but embedded in the masses of the organs and between them, the proprioceptors, buried in muscles, tendons and joints, there is little doubt that these sensations may be disturbed or impaired by injury of the cortex cerebri. They may probably also be excited by cortical stimulation. But evidence of localization of their seat in, and their details of connexion with, the cortex, is at present uncertain. Many authorities consider it probable that sensations of touch and the sensations initiated by the proprioceptors of muscles and joints (the organs of the so-called muscular sense) are specially related to the post-central gyrus and perhaps to the pre-central gyrus also. The clearest items on this point are perhaps the following.

When it comes to the sensations caused by the many receptors that aren't found on the body's surface but are instead embedded within the organs and in between them, known as proprioceptors, which are located in muscles, tendons, and joints, there’s little doubt that these sensations can be disrupted or damaged by injury to the cortex cerebri. They can also likely be triggered by stimulation of the cortex. However, the evidence regarding their specific location and details of their connection to the cortex is currently unclear. Many experts believe that touch sensations and those initiated by the proprioceptors in muscles and joints (the elements of what’s known as muscular sense) are particularly associated with the post-central gyrus, and possibly the pre-central gyrus as well. The most definitive pieces of information on this topic might be the following.

Besides the regions instanced above, in the limbic (olfactory), occipital (visual), and temporal (auditory) lobes, as exhibiting precocity of development, there is a region showing similar precocity in the fronto-parietal portion of the hemisphere. This is the region which in the Primates includes the large central fissure (sometimes called the fissure of Rolando). To it fibres are traced which seem to continue a path of conduction that began with afferent tracts belonging to the spinal cord, and tracts which there is reason to think conduct impulses from the receptor-organs of skin and muscles. The part of the cortex immediately behind the central fissure seems to be the main cortical goal for these upward-conducting paths. That post-central strip of cortex would in this view bear to these paths a relation similar to that which the occipital and temporal regions bear to afferent tracts from the retina and the cochlea. There are observations which associate impaired tactual sense and impaired perception of posture and movement of a limb with injury of the central region of the cortex. But there are a number also which show that the motor defect which is a well-ascertained result of injury of the pre-central gyrus is sometimes unaccompanied by any obvious defect either of touch or of muscular sense. It seems then that the motor centres of this region are closely connected with the centres for cutaneous and muscular sense, yet are not so closely interwoven with them that mechanical damage inflicted on the one of necessity heavily damages the other as well. There is evidence that the sensory cortex in this region lies posterior to that which has been conveniently termed the “motor.” These latter in the monkey and the man-like apes and man lie in front of the central fissure: the sensory lie probably behind it. A.W. Campbell has found changes in the cortex of the post-central convolution ensuing in the essentially sensory disease, tabes dorsalis, a disease in which degeneration of sensory nerve-fibres of the muscular sense and of the skin senses is prominent. He considers that in man and the man-like apes the part of the post-central gyrus which lies next to and enters into the central fissure is concerned with simpler sensual recognitions, while the adjoining part of that convolution farther back is a “psychic region” concerned with more complex psychosis connected with the senses of skin and muscle. His subdivision of the post-central gyrus is based on histological differences which he discovers between its anterior and its posterior parts and on the above-described analogous differentiation of a “sensory” from a “psychic” part in the visual region of cortex.

Besides the regions mentioned above, in the limbic (olfactory), occipital (visual), and temporal (auditory) lobes, which show advanced development, there is a similar area in the fronto-parietal part of the hemisphere. This area in primates includes the large central fissure (sometimes referred to as the fissure of Rolando). Fibers are traced that appear to continue a conduction pathway starting with afferent tracts from the spinal cord and tracts which likely carry impulses from the receptor organs of skin and muscles. The part of the cortex just behind the central fissure seems to be the primary cortical destination for these upward-conducting paths. That post-central strip of cortex is, in this perspective, related to these paths similarly to how the occipital and temporal regions relate to afferent tracts from the retina and the cochlea. There are observations linking impaired tactile sense and impaired perception of posture and movement of a limb to damage in the central region of the cortex. However, there are also several findings showing that the motor defect resulting from injury to the pre-central gyrus can sometimes occur without any clear impairment of touch or muscle sense. It seems that the motor centers in this region are closely linked to the centers for skin and muscle sensation, yet they are not so intertwined that damage to one necessarily causes severe damage to the other as well. There is evidence that the sensory cortex in this area is located behind what is conveniently called the “motor” cortex. The latter in monkeys, apes, and humans is found in front of the central fissure, while the sensory cortex likely lies behind it. A.W. Campbell has found changes in the cortex of the post-central convolution occurring in the predominantly sensory disease, tabes dorsalis, a condition characterized by degeneration of sensory nerve fibers for muscle sense and skin sensations. He believes that in humans and ape-like relatives, the part of the post-central gyrus next to and merging with the central fissure is involved with simpler sensory recognitions, while the adjacent part of that convolution further back is a “psychic region” involved with more complex psychological processes related to the senses of skin and muscle. His subdivision of the post-central gyrus is based on histological differences he finds between its anterior and posterior parts and on the previously described analogous differentiation between a “sensory” and a “psychic” area in the visual cortex.

It will be noted that although certain regions of the cortex are found connected closely with certain of the main sense organs, there are important receptive organs which do not appear to have any special region of cortex assigned to their sensual products. Thus, there is the “vestibular labyrinth” of the ear. This great receptive organ, so closely connected in function with the movements and adjustment of the postures of the head and eyes, and indeed of the whole body, is prominent in the co-ordination necessary for the equilibrium of the body, an essential part of the fundamental acts of progression, standing, &c. Yet neither structural nor functional connexion with any special region of the cortex has been traced as yet for the labyrinthine receptors. Perceptions of the position of the head and of the body are of course part of our habitual and everyday experience. It may perhaps be that these perceptions are almost entirely obtained through sense organs which are not labyrinthine, but visual, muscular, tactual, and so on. The labyrinth may, though it controls and adjusts the muscular activities which maintain the balance of the body, operate reflexly without in its operation exciting of itself sensations. The results of the unconscious reflexes it initiated and guided would be perceptible through other organs of sense. But against this purely unconscious functioning of the labyrinth and its nervous apparatus stands the fact that galvanic stimulation of the labyrinth is accompanied by well-known distinctive sensations—including giddiness, &c. Moreover, the prominent factor in sea-sickness, a disorder richly suffused with sensations, is probably the labyrinth. Yet there is marked absence of evidence of any special and direct connexion between the cortex cerebri and the labyrinth organs.

It’s important to note that while certain areas of the cortex are closely linked to specific sense organs, there are key sensory organs that don’t seem to have a dedicated region in the cortex for their sensory signals. One example is the “vestibular labyrinth” of the ear. This major sensory organ is closely tied to the movement and positioning of the head and eyes, as well as the entire body, playing a crucial role in the coordination needed for balance, which is essential for basic activities like walking and standing. However, a clear structural or functional link to any specific region of the cortex has yet to be identified for the labyrinth receptors. Our perceptions of body and head position are, of course, part of our everyday experience. It’s possible that these perceptions come mainly from non-labyrinthine sense organs like visual, muscular, and tactile ones. Although the labyrinth manages and adjusts the muscle activities that help maintain body balance, it may operate reflexively without generating sensations on its own. The effects of the unconscious reflexes it triggers would be felt through other sense organs. However, this notion of the labyrinth functioning solely unconsciously is challenged by the fact that stimulating the labyrinth electrically leads to well-known sensations, such as dizziness. Additionally, the main contributor to seasickness, which is filled with sensations, is likely the labyrinth. Still, there's a notable lack of evidence for any specific and direct connection between the cortex and the labyrinth.

Also there is curiously little evidence of connexion of the cortex 411 with the nervous paths of conduction concerned with pain. As far as the present writer can find from reference to books and from the clinical experience of others, “pain” is unknown as an aura in cortical epilepsy, or at most is of equivocal occurrence.

Also, there is surprisingly little evidence connecting the cortex 411 with the neural pathways involved in pain. As far as I can gather from reading and the clinical experiences of others, “pain” is not recognized as an aura in cortical epilepsy, or at best, it happens only occasionally.

The preceding brief exposition of some of the main features of the localization of function in the cortex cerebri, gradually deciphered by patient inquiry, shows that the scheme of partition of function so far perceptible does not follow the quaint lines of analysis of the phrenologists with their supposed mental entities, so-called “faculties.” On the contrary it is based, as some of those who early favoured a differential arrangement of function in the cerebrum had surmised, on the separateness of the incoming channels from peripheral organs of sense. These organs fall into groups separate one from another not only by reason of their spatial differentiation at the surface and in the thickness of the body, but also because each group generates sensations which introspection tells us are of a species unbridgeably separate from those generated by the other groups. Between sensations of hearing and sensations of sight there is a dissimilarity across which no intermediate series of sensual phenomena extend. The two species of sensations are wholly disparate. Similarly there is a total and impassable gap between sensations of touch and sensations of sight and sound. In other words the sensations fall into groups which are wholly disparate and are hence termed species. But within each species there exist multifold varieties of the specific sensation, e.g. sensations of red, of yellow, &c. We should expect, therefore, that the conducting paths from the receptive organs which in their function as sense-organs yield wholly disparate sensations would in so far as subserving sensation diverge and pass to separate neural mechanisms. That these sense-organs should in fact be found to possess in the cortex of the cerebrum separate fields for their sensual nervous apparatus is, therefore, in harmony with what would be the a priori supposition.

The earlier brief overview of some key aspects of how functions are localized in the cortex cerebri, gradually uncovered through careful investigation, indicates that the way we divide functions does not align with the outdated ideas of phrenologists and their supposed mental faculties. Instead, it is based, as some early supporters of a functional arrangement in the brain had suggested, on the separateness of the incoming channels from peripheral organs of sense. These organs are grouped separately not only because of their physical locations in the body, but also because each group produces sensations that introspection tells us are distinctly different from those generated by other groups. There is a clear difference between the sensations of hearing and those of sight, with no overlap of sensory experiences. The sensations from these two areas are entirely unrelated. Similarly, there is a complete and unbridgeable gap between sensations of touch and those of sight and sound. In other words, sensations fall into groups that are completely distinct and are therefore referred to as species. However, within each species, there are numerous variations of the specific sensation, e.g. sensations of red, yellow, and so on. Therefore, we would expect that the pathways from the sensory organs yielding entirely different sensations would diverge and connect to separate neural mechanisms. The fact that these sensory organs are found to have distinct areas for their sensory functions in the cortex of the cerebrum is consistent with what would be the a priori assumption.

But, as emphasized at the beginning of this article, the receptive organs belonging to the surfaces and the depths of the body and forming the starting-points for the whole system of the afferent nerves, have two functions more or less separate. One of these functions is to excite sensations and the other is to excite movements, by reflex action, especially in glands and muscles. In this latter function, namely the reflexifacient, all that the receptive organs effect is effected by means of the efferent nerves. They all have to use the efferent, especially the motor, nerves of the body. So rich is the connexion of the receptive organs with the efferent nerves that it is not improbable that, through the central nervous organ, each receptive organ is connected with every motor nerve of the whole nervous system,—the facts of strychnine poisoning show that if this is not literally true it is at least approximately so. Hence one of the goals to which each afferent fibre from a receptive organ leads is a number of motor nerves. Their conducting paths must, therefore, converge in passing to the starting-points of the motor nerves; because these latter are instruments common to the use of a number of different receptive organs in so far as they excite reflex actions. On the other hand those of their conducting paths which are concerned in the genesis of sensation, instead of converging, diverge, at least as far as the cortex cerebri, or if not divergent, remain separate. These considerations would make it appear likely that the conducting path from each receptive organ divides in the central nervous system into two main lines, one of which goes off to its own particular region of the cortex cerebri whither run conductors only of similar sensual species to itself, while the other main line passes with many others to a great motor station where, as at a telephone exchange, coordinate use of the outgoing lines is assured to them all. Now there is in fact a portion of the cortex in mammals the functions of which are so pre-eminently motor, as judged by our present methods, that it is commonly designated the motor cortex (see fig. 24). This region of the cortex occupies in the Primates, including Man, the pre-central gyrus. Among the items of evidence which reveal its motor capabilities are the following.

But, as highlighted at the start of this article, the sensory organs found on the surfaces and in the depths of the body serve as the starting points for the entire system of afferent nerves, and they have two mostly distinct functions. One of these functions is to trigger sensations, and the other is to initiate movements through reflex action, especially in glands and muscles. In this second function, known as reflexive action, everything that the sensory organs accomplish is done through the efferent nerves. They all rely on the efferent, especially the motor, nerves of the body. The connection between the sensory organs and the efferent nerves is so extensive that it's likely—through the central nervous system—that each sensory organ connects to every motor nerve throughout the entire nervous system. The effects of strychnine poisoning suggest that while this might not be entirely true, it's close enough. Therefore, one of the endpoints for each afferent fiber from a sensory organ is multiple motor nerves. These pathways must converge as they approach the starting points of the motor nerves; because these motor nerves are common tools used by various sensory organs to trigger reflex actions. Conversely, the pathways involved in generating sensations tend to diverge at least up to the cortex; if they don’t diverge, they remain distinct. This indicates that the pathway from each sensory organ splits in the central nervous system into two major lines: one line goes to a specific area of the cortex, where only similar types of sensory conductors are found, while the other line connects, along with many others, to a large motor hub where effective coordination of the outgoing lines is ensured. In mammals, there is indeed a part of the cortex that is primarily motor in function based on our current knowledge, and it is commonly referred to as the motor cortex (see fig. 24). This area of the cortex is located in the pre-central gyrus in primates, including humans. There are several pieces of evidence that demonstrate its motor functions.

Fig. 24.—Diagram of the Topography of the Main Groups of Foci in the Motor Field of Chimpanzee.

The Precentral or Motor Region of the Cortex.—The application to it of electric currents excites movements in the skeletal muscles. The movements occur in the half of the body of the side crossed from that of the hemisphere excited. The “motor representation,” as it is termed, is in the cortex better described as a representation of definite actions than of particular muscles. The actions “represented” in the top part of the gyrus, namely next the great longitudinal fissure, move the leg; those in the lowest part of the gyrus belong to the tongue and mouth. The topical distribution along the length of the gyrus may be described in a general way as following a sequence resembling that of the motor representation in the spinal cord, the top of the gyrus being taken as corresponding with the caudal end of the spinal cord. The sequence as the gyrus is followed downwards runs: perineum, foot, knee, hip, abdomen, chest, shoulder, elbow, wrist, hand, eyelids and ear, nose, mouth and tongue. The nature of the movement is very fairly constant for separate points of this motor cortex as observed both in the same and in similar experiments. Thus flexion of the arm will be excitable from one set of points, and extension of the arm from another set of points; opening of the jaw from one set and closure from another, and so on. These various movements if excited strongly tend to have characters like those of the movements seen in an epileptic convulsion. Strong stimulation excites in fact a convulsion like that of epilepsy, beginning with the movement usual for the point stimulated and spreading so as to assume the proportions of a convulsion affecting the entire skeletal musculature of one half or even of the whole body. The resemblance to an epileptic seizure is the closer because the movement before it subsides becomes clonic (rhythmic) as in epilepsy. The determination of the exact spots of cortex in which are represented the various movements of the body has served a useful practical purpose in indicating the particular places in the cortex which are the seat of disease. These the physician can localize more exactly by reason of this knowledge. Hence the surgeon, if the nature of the disease is such as can be dealt with by surgical means, can without unnecessarily damaging the skull and brain, proceed directly to the point which is the seat of the mischief.

The Precentral or Motor Region of the Cortex.—Applying electric currents to this area triggers movements in the skeletal muscles. These movements occur in the half of the body opposite to the hemisphere that is stimulated. The “motor representation,” as it’s called, is better understood in the cortex as a representation of specific actions rather than individual muscles. The actions represented in the top part of the gyrus, closest to the large longitudinal fissure, control the leg; those in the lowest part of the gyrus are related to the tongue and mouth. The distribution along the gyrus can generally be described as following a sequence similar to that of the motor representation in the spinal cord, with the top of the gyrus corresponding to the lower end of the spinal cord. As you move down the gyrus, the sequence is: perineum, foot, knee, hip, abdomen, chest, shoulder, elbow, wrist, hand, eyelids, ear, nose, mouth, and tongue. The nature of the movements at different points in this motor cortex tends to be quite consistent, as observed in both the same and similar experiments. For example, flexing the arm is stimulated from one set of points, while extending the arm is stimulated from another set; opening the jaw comes from one set and closing it from another, and so on. When these various movements are strongly stimulated, they tend to resemble the movements seen in an epileptic seizure. Strong stimulation can indeed cause a convulsion similar to epilepsy, starting with the typical movement for the stimulated point and spreading to involve the entire skeletal musculature of one half or even the whole body. The resemblance to an epileptic seizure is even closer because the movement turns clonic (rhythmic) before it stops, similar to epilepsy. Identifying the exact spots in the cortex corresponding to the various body movements has proven useful in a practical sense, as it helps indicate specific areas in the cortex affected by disease. This knowledge allows physicians to localize more accurately, enabling surgeons to target the exact area causing the issue without unnecessarily damaging the skull and brain.

The motor representation of certain parts of the body is much more liberal than is that of others. There is little correspondence between the mere mass of musculature involved and the area of the cortex devoted to its representation. Variety of movement 412 rather than force or energy of movement seems to demand extent of cortex. The cortical area for the thumb is larger than those for the whole abdomen and chest combined. The cortical area for the tongue is larger than that for the neck. Different movements of one and the same part are very unequally represented in the cortex. Thus, flexion of the leg is more extensively represented than is extension, opening of the jaw has a much larger cortical area than has closure of the jaws. It is interesting that certain agents, for instance strychnine, and the poison of the bacilli which cause the disease known as tetanus or lock-jaw, upset this normal topography, and replace in the cortex flexion of the limb by extension of the limb, and opening of the jaw by closure of the jaw. There is, however, no evidence that they do this by changing in any way the cortical mechanisms themselves. It is more likely that their action is confined to the lower centres, bulbar and spinal, upon which the discharge excited from the cortex plays. The change thus induced in the movement excited by the cortex does, however, show that the point of cortex which causes for instance opening of the mouth is connected with the motor nerves to the closing muscles as well as with those of the opening muscles. This is an item of evidence that the “centres” of the cortex are connected with the motor nerves of antagonistic muscles in such a way that when the “centre” excites one set of the muscles to contract, it simultaneously under normal circumstances causes inhibition of the motor neurones of the opposed set of muscles (reciprocal innervation). In the great majority of movements excited from the motor cortex of a single hemisphere of the cerebrum, the movement evoked is confined to one side of the body, namely to that opposite to the hemisphere stimulated. There are, however, important exceptions to this. Thus, adduction of both vocal cords is excited from the cortex of either hemisphere. The movement of closure of the eyelids is usually bilateral, unless the stimulation be very weak; then the movement is of the eyelids of the opposite side only. The same holds true for the movements of the jaw. It, therefore, seems clear that with many movements which are usually bilaterally performed in ordinary life, such as opening of the jaw, blinking, &c., the symmetrical areas of the motor regions of both hemispheres are simultaneously in action.

The way the brain represents the motor functions of different body parts varies significantly. There's not much correlation between the size of the muscles involved and the area of the brain dedicated to their representation. It's more about the variety of movements rather than the strength or energy of those movements that requires a larger brain area. For example, the part of the brain that controls the thumb is larger than the area for the entire abdomen and chest combined. Similarly, the brain area for the tongue is larger than that for the neck. Different movements of the same body part are represented unevenly in the brain. For instance, the movement to flex the leg is more represented than the movement to extend it, and opening the jaw has a larger brain area dedicated to it than closing the jaw. Interestingly, certain substances, like strychnine and the poison from the bacteria that cause tetanus, can disrupt this normal representation and swap the brain's role for flexion with extension, and for opening with closing the jaw. However, there's no evidence that these substances directly change the brain mechanisms themselves. It’s more likely that they affect the lower centers in the brain and spinal cord that the cortex influences. Nevertheless, the changes in movement activated by the cortex indicate that the area of the brain responsible for opening the mouth is linked to the nerves that control both the opening and closing muscles. This shows that the brain's centers are connected to the motor nerves of opposing muscles. So, when one set of muscles is activated to contract, it usually also inhibits the opposing muscles (this is known as reciprocal innervation). For most movements triggered from the motor cortex in one side of the brain, the action is limited to the opposite side of the body. However, there are some important exceptions. For example, the closing of both vocal cords can be triggered from either hemisphere of the brain. The movement of closing the eyelids is typically bilateral, unless the stimulation is very weak, in which case it may only affect the eyelids on the opposite side. This is also true for jaw movements. Therefore, it seems clear that many movements usually performed bilaterally, like opening the jaw or blinking, involve the motor regions of both brain hemispheres working together.

In regard to all these movements elicitable by artificial stimuli from the motor cortex it is obvious that were there clearer evidence that the pallial region from which they are elicitable is fairly directly connected with corticopetal paths subserving cutaneous sensation or “muscular sense,” the movements might be regarded as falling into the category of higher reflexes connected with the organs of touch, muscular sense, &c., just as the movements of the eyeball excitable from the visual cortex may be regarded as higher reflexes connected with vision. The evidence of the connexion of the reactions of the motor cortex with cutaneous and muscular senses appears, however, scarcely sufficient to countenance at present this otherwise plausible view, which has on general grounds much to commend it.

Regarding all these movements triggered by artificial stimuli from the motor cortex, it's clear that if there was stronger evidence showing that the brain area responsible for these movements is directly linked to pathways serving skin sensation or "muscular sense," the movements could be categorized as higher reflexes related to touch, muscular sense, etc., similar to how movements of the eyeball activated from the visual cortex can be seen as higher reflexes connected to vision. However, the evidence connecting the reactions of the motor cortex with skin and muscular senses seems, at this point, insufficient to support this otherwise reasonable perspective, which has many general merits.

It is remarkable that movements of the eyeball itself, i.e. apart from movement of the lids, are not in the category of movements elicitable from the precentral gyrus, the “motor” cortex. They are found represented in a region farther forward, namely in front of the precentral gyrus altogether, and occupying a scattered set of points in the direction frontal from the areas for movements of arm and face. This frontal area yields on excitation conjugate movements of both eyeballs extremely like if not exactly similar to those yielded by excitation of the occipital (visual) region of the cortex. It is supposed by some that this frontal area yielding eye-movements has its function in this respect based upon afferent conductors from other parts of the eyeball than the retina, for instance upon kinaesthetic (Bastian) impressions or upon sensual impressions derived from the cornea and the coats of the eyeball including the ciliary and iris muscles. The ocular muscles are certainly a source of centripetal impulses, but their connexion with the cortex is not clear as to either their nature or their seat. The question seems for the present to allow no clearer answer. It is certain, however, that the frontal area of eye movements has corticofugal paths descending from it to the lower motor centres of the eyeballs quite independent of those descending from the occipital (visual) area of eye-movements. Further, it seems clear that in many animals there is another cortical region, a third region, the region which we saw above might be considered auditory, where movements of the eyeball similar to those elicitable in the occipital and frontal cortex can be provoked. A. Tschermak is inclined to give the eyeball movements of the frontal region the significance of reflex movements which carry the visual field in various directions in answer to demands made by sensory data derived from touch, &c., as for instance from the hand. The movements of the eyeballs elicitable from the occipital region of the cortex he regards as probably concerned with directing the gaze toward something seen, for instance, in the peripheral field of vision. The occipital movement would, therefore, be excited through the retina, and would result in bringing the yellow spot region of the retinae of both eyes to bear upon the object. This view has much to justify it. The movements of the eyeballs excited from the cortex of the auditory region would in a similar way be explicable as bringing the gaze to bear upon a direction in which a sound had been located, auditory initiation replacing the visual and tactual of the occipital and the frontal regions respectively.

It's interesting that the movements of the eyeballs themselves, aside from the movement of the eyelids, aren't triggered by the precentral gyrus, known as the "motor" cortex. Instead, they're represented in a region that's located further forward, right in front of the precentral gyrus, spread across various points in the frontal direction relative to the areas responsible for arm and facial movements. This frontal area, when stimulated, produces coordinated movements of both eyeballs that are very similar, if not identical, to those triggered by stimulation of the occipital (visual) region of the cortex. Some believe that the frontal area responsible for eye movements has its function based on signals from other parts of the eyeball besides the retina, such as kinesthetic impressions (Bastian) or sensory feedback from the cornea and the layers of the eyeball, including the ciliary and iris muscles. The ocular muscles definitely send centripetal signals, but their connection to the cortex isn't clear regarding their nature or origin. For now, this question doesn't seem to have a straightforward answer. What is certain, though, is that the frontal area for eye movements has descending corticofugal pathways to the lower motor centers of the eyeballs that are completely independent of those originating from the occipital (visual) area for eye movements. Additionally, it seems evident that in many animals, there’s another cortical region, a third region, which we previously considered to be auditory, where eye movements similar to those triggered in the occipital and frontal cortices can also be initiated. A. Tschermak leans toward viewing the eye movements from the frontal region as reflex actions that shift the visual field in response to sensory information from touch, etc., such as from the hand. He considers that the eye movements induced by the occipital region of the cortex are likely related to directing the gaze toward something visible, like in the peripheral field of vision. Thus, occipital movement would be triggered through the retina, resulting in aligning the yellow spot region of both eyes’ retinas with the object. This perspective has a lot of support. The eye movements activated from the cortex of the auditory region could similarly be understood as orienting the gaze toward a direction where a sound was located, with auditory cues replacing the visual and tactile inputs from the occipital and frontal regions, respectively.

Turning from these still speculative matters to others less suggestive but of actual ascertainment, we find that the motor nature of the precentral cortex as ascertained by electric stimuli is further certified by the occurrence of disturbance and impairment of motor power and adjustment following destruction of that region of the cortex. The movements which such a part as a limb executes are of course manifold in purpose. The hind limb of a dog is used for standing, for stepping, for scratching, for squatting, and, where a dog, for instance, has been trained to stand or walk on its hind legs alone, for skilled acts requiring a special training for their acquisition. It is found that when the motor area of the brain has been destroyed, the limb is at first paralysed for all these movements, but after a time the limb recovers the ability to execute some of them, though not all. The scratching movement suffers little, and rapid improvement after cerebral injury soon effaces the impairment, at first somewhat pronounced, in the use of the limb for walking, running, &c., and ordinary movements of progression. Even when both hemispheres have been destroyed the dog can still stand and walk and run. Destruction of the motor region of the cortex renders the fore limbs of the dog unable to execute such skilled movements as the steadying of a bone for gnawing or the trained act of offering the paw in answer to the command of the master. Skilled acts of the limb, apart from conjoined movements in which it, together with all the other limbs, takes part, assume of course a larger share of the office of the limb in the Primates than in the dog; and this is especially true for the fore limb. It is when the fore-foot becomes a hand that opportunity is given for its more skilled individual use and for its training in movements as a tool, or for the handling of tools and weapons. It is these movements which suffer most heavily and for the longest period after injury of the motor region of the cortex. Hence the disablement ensuing upon injury to the cortex would be expected to be most apparent in the Primates; and it is so, and most of all in Man. Further, in Man there ensues a condition called “contracture,” which is not so apparent or frequent a result in other animals,—indeed, does not occur at all in other animals except the monkey. In contracture the muscles of the paretic limb are not flaccid, as they are usually in paralysis, but they are tense and the limb is more or less rigidly fixed by them in a certain position, usually one of flexion at elbow and wrist. This condition does not occur at first, but gradually supervenes in the course of a number of weeks. In Man the destruction of the motor area of the cortex cripples the limb even for the part it should play in the combined limb movements of walking, &c., and cripples it to an extent markedly contrasting with the slight disturbances seen in the lower mammals, e.g. the dog.

Shifting away from these still uncertain topics to others that are less suggestive but more established, we find that the motor function of the precentral cortex, determined through electric stimulation, is further confirmed by the disruption and loss of motor ability and coordination following damage to that area of the cortex. The movements executed by a limb have various purposes. A dog's hind limb is used for standing, stepping, scratching, squatting, and, in cases where a dog has been trained, standing or walking on its hind legs, performing skilled actions that require specific training. It has been observed that when the motor area of the brain is damaged, the limb is initially paralyzed for all these movements, but over time, the limb regains the ability to perform some of them, though not all. The scratching movement is minimally affected, and rapid recovery after brain injury quickly reduces the initial impairment in the use of the limb for walking, running, etc., and normal movements. Even if both hemispheres are damaged, the dog can still stand, walk, and run. Damage to the motor region of the cortex makes the dog's forelimbs unable to perform skilled movements like holding a bone steady for chewing or presenting the paw in response to the owner's command. Skilled limb movements, beyond the combined motions that involve all limbs, play a more significant role in Primates than in dogs; this is especially true for the forelimb. When the forefoot transforms into a hand, it allows for more skilled individual use and training in tool movements or handling tools and weapons. These movements are the most affected and for the longest period after injury to the motor region of the cortex. Therefore, the impairment following injury to the cortex is expected to be most noticeable in Primates, particularly in humans. Moreover, in humans, this results in a condition known as “contracture,” which is not as apparent or frequent in other animals—indeed, it only occurs in monkeys. In contracture, the muscles of the affected limb are not loose, as they typically are in paralysis, but rather tense, with the limb being more or less rigidly fixed in a certain position, often flexed at the elbow and wrist. This condition does not occur immediately but gradually develops over several weeks. In humans, damage to the motor area of the cortex severely affects the limb's ability to contribute to combined movements like walking, contrasting sharply with the minimal disturbances observed in lower mammals, such as dogs.

As regards the recovery of motor power after lesions of the 413 motor cortex, two processes seem at work which are termed respectively restitution and compensation. By the former is understood the recovery obtained when a part of a “centre” is destroyed, and the rest of the centre, although thrown out of function at first, recovers and supplements the deficiency later. An example of restitution would be the recovery from temporary hemianopia caused by a small injury in one occipital lobe. By compensation is understood the improvement of an impaired nervous function, traceable to other centres different from those destroyed supplying means to compass the reaction originally dependent on the centres subsequently destroyed. Instances of such compensation are the recovery of taxis for equilibrium subsequent to destruction of the labyrinth of the ear, where the recovery is traceable to assistance obtained through the eye. It will be noted that these instances of recovery by restitution and by compensation respectively are taken, from cases of injury inflicted on receptive rather than on motor centres. It is doubtful how far they really apply to the undoubted improvement that does within certain limits progress and succeed in partially effacing the paresis immediately consequent on lesions of the motor area. It has to be remembered that in all cases of traumatic injury to the nervous system, especially where the trauma implicates the central nervous organ, the first effects and impairment of function resulting are due to a mixed cause, namely on the one hand the mechanical rupture of conducting paths actually broken by solution of their continuity, and on the other hand the temporary interruption of conducting paths by “shock.” Shock effects are not permanent: they pass off. They are supposed to be due to a change at the synapses connecting neurone with neurone in the grey matter. They amount in effect to a long-lasting and gradually subsiding inhibition.

When it comes to regaining motor function after damage to the motor cortex, two processes are at play known as restitution and compensation. Restitution refers to recovery that occurs when part of a "center" is damaged, and the remaining part, although initially nonfunctional, later recovers and makes up for the loss. An example of restitution would be recovering from temporary hemianopia caused by a small injury to one occipital lobe. Compensation, on the other hand, is the improvement of a weakened nerve function that comes from other centers different from the ones that have been damaged, helping to recreate the reaction that originally depended on the destroyed centers. One example of compensation is the recovery of balance after damage to the ear's labyrinth, where the recovery is aided by visual input. It’s important to note that these examples of recovery through restitution and compensation are drawn from cases of damage to sensory rather than motor centers. It's uncertain how much they truly apply to the notable recovery that can take place within certain limits in partially reducing the weakness that immediately follows damage to the motor area. Keep in mind that in all cases of traumatic injury to the nervous system, especially when the trauma involves the central nervous system, the initial effects and loss of function occur due to a combination of factors: the physical breakage of nerve pathways and a temporary interruption of those pathways due to "shock." Shock effects are not permanent; they fade over time. They are thought to be caused by changes at the synapses that connect neurons in the gray matter. Essentially, they amount to a prolonged and slowly diminishing inhibition.

For diseases of the brain see Neuropathology, Insanity, Skull (Surgery), &c.

For brain diseases, see Neuropathology, Insanity, Skull (Surgery), etc.

(C. S. S.)

1 The literature of the pineal region is enormous. Studnicka (in Oppels Vergleichende mikrosk. Anat. Teile 4-5, 1904, 1905) gives 285 references. The present conception of the generalized arrangement is: (α) A single glandular median organ from the fore-brain called the paraphysis. (β) A pouch of the ependymal roof of the ventricle called the dorsal sac. (γ) A right and left epiphysis, one of which may be wholly or partially suppressed. These may change their position to anterior and posterior in some animals.

1 The literature on the pineal region is extensive. Studnicka (in Oppels Vergleichende mikrosk. Anat. Parts 4-5, 1904, 1905) lists 285 references. The current understanding of the generalized layout is: (α) A single glandular median organ from the forebrain known as the paraphysis. (β) A pouch of the ependymal roof of the ventricle called the dorsal sac. (γ) A right and left epiphysis, one of which may be completely or partially absent. These structures can shift their position to the front and back in some animals.


BRAINERD, DAVID (1718-1747), American missionary among the Indians, was born at Haddam, Connecticut, on the 20th of April 1718. He was orphaned at fourteen, and studied for nearly three years (1739-1742) at Yale. He then prepared for the ministry, being licensed to preach in 1742, and early in 1743 decided to devote himself to missionary work among the Indians. Supported by the Scottish “Society for Promoting Christian Knowledge,” he worked first at Kaunaumeek, an Indian settlement about 20 m. from Stockbridge, Massachusetts, and subsequently, until his death, among the Delaware Indians in Pennsylvania (near Easton) and New Jersey (near Cranbury). His heroic and self-denying labours, both for the spiritual and for the temporal welfare of the Indians, wore out a naturally feeble constitution, and on the 19th of October 1747 he died at the house of his friend, Jonathan Edwards, in Northampton, Massachusetts.

BRAINERD, DAVID (1718-1747), American missionary among the Indigenous people, was born in Haddam, Connecticut, on April 20, 1718. He lost his parents at fourteen and studied for nearly three years (1739-1742) at Yale. He then prepared for the ministry, getting licensed to preach in 1742, and in early 1743 chose to dedicate himself to missionary work among the Indigenous people. With support from the Scottish “Society for Promoting Christian Knowledge,” he first worked at Kaunaumeek, an Indigenous settlement about 20 miles from Stockbridge, Massachusetts, and later, until his death, among the Delaware Indians in Pennsylvania (near Easton) and New Jersey (near Cranbury). His courageous and selfless efforts for both the spiritual and material well-being of the Indigenous people exhausted his naturally weak health, and on October 19, 1747, he passed away at the home of his friend, Jonathan Edwards, in Northampton, Massachusetts.

His Journal was published in two parts in 1746 by the Scottish Society for Promoting Christian Knowledge; and in 1749, at Boston, Jonathan Edwards published An Account of the Life of the Late Rev. David Brainerd, chiefly taken from his own Diary and other Private Writings, which has become a missionary classic. A new edition, with the Journal and Brainerd’s letters embodied, was published by Sereno E. Dwight at New Haven in 1822; and in 1884 was published what is substantially another edition, The Memoirs of David Brainerd, edited by James M. Sherwood.

His Journal was published in two parts in 1746 by the Scottish Society for Promoting Christian Knowledge; and in 1749, in Boston, Jonathan Edwards published An Account of the Life of the Late Rev. David Brainerd, chiefly taken from his own Diary and other Private Writings, which has become a missionary classic. A new edition, combining the Journal and Brainerd’s letters, was published by Sereno E. Dwight in New Haven in 1822; and in 1884, another edition, The Memoirs of David Brainerd, edited by James M. Sherwood, was published.


BRAINERD, a city and the county-seat of Crow Wing county, Minnesota, U.S.A., on the E. bank of the Mississippi river, about 127 m. N.W. of Minneapolis. Pop. (1890) 5703; (1900) 7524, of whom 2193 were foreign-born; (1905) 8133; (1910) 8526. It is served by the Minnesota & International and the Northern Pacific railways. The latter maintains here large car and repair shops, and a sanatorium for its employees. There are also the Sisters of St Joseph hospital, a county court house, a public library and a Y.M.C.A. building. A dam across the Mississippi provides water power (about 60,000 H.P.) which is utilized extensively for manufacturing purposes. Lumbering is an important industry, and there are saw mills and planing mills, and an extensive creosote plant for treating railway ties and timber. There are also flour mills, paper and pulp mills, cigar factories, a brewery, a large foundry and a grain elevator. In 1906 large quantities of iron ore were discovered in the vicinity, the new range, the Cuyuna, running through the city from north-east to south-west. Brainerd, named in honour of David Brainerd, was settled in 1870, and chartered as a city in 1883.

BRAINERD, is a city and the county seat of Crow Wing County, Minnesota, U.S.A., located on the east bank of the Mississippi River, about 127 miles northwest of Minneapolis. Population: (1890) 5,703; (1900) 7,524, of which 2,193 were foreign-born; (1905) 8,133; (1910) 8,526. It's served by the Minnesota & International and the Northern Pacific railways. The latter has large car and repair shops here, as well as a sanatorium for its employees. There are also the Sisters of St. Joseph hospital, a county courthouse, a public library, and a YMCA building. A dam across the Mississippi provides about 60,000 horsepower of water power, which is widely used for manufacturing. Lumbering is a key industry, with sawmills, planing mills, and a large creosote plant for treating railway ties and timber. Additionally, there are flour mills, paper and pulp mills, cigar factories, a brewery, a large foundry, and a grain elevator. In 1906, large amounts of iron ore were discovered nearby, with the new Cuyuna Range running through the city from northeast to southwest. Brainerd, named after David Brainerd, was settled in 1870 and became a chartered city in 1883.


BRAINTREE, a market town in the Maldon parliamentary division of Essex, England; 45 m. N.E. of London by a branch line from Witham of the Great Eastern railway. Pop. of urban district, 5330. The parish church of St Michael is a fine edifice of Early English work with later additions. A corn exchange, mechanics’ institute and public hall may also be mentioned. The bishops of London had formerly a palace in the town, but there are no remains of the building. The manufactures of silk and crape have superseded that of woollen cloth, which was introduced by the Flemings who fled to England to escape the persecution of the duke of Alva. Matting and brushes are also made. On the north lies the large village of BOCKING, with the Perpendicular parish church of St Mary, similar industries, and a population of 3347.

BRAINTREE, is a market town in the Maldon parliamentary division of Essex, England; 45 miles northeast of London via a branch line from Witham on the Great Eastern railway. The population of the urban district is 5,330. The parish church of St. Michael is a beautiful building from the Early English period with later additions. There's also a corn exchange, mechanics’ institute, and public hall. The bishops of London used to have a palace in the town, but there are no remains of that building. The production of silk and crape has replaced woolen cloth manufacturing, which was initially brought in by Flemings who fled to England to escape persecution from the Duke of Alva. Matting and brushes are also produced here. To the north is the large village of BOCKING, featuring the Perpendicular parish church of St. Mary, similar industries, and a population of 3,347.


BRAINTREE, a township of Norfolk county, Massachusetts, U.S.A., on the Monatiquot river about 10 m. S. of Boston. Pop. (1890) 4848; (1900) 598l, including 1250 foreign-born; (1905, state census) 6879; (1910) 8066. The New York, New Haven & Hartford railway crosses the town and has stations at its villages of Braintree, South Braintree and East Braintree, which are also served by suburban electric railways. In South Braintree are the Thayer Academy (co-educational; opened 1877) and the Thayer public library, both founded by and named in honour of General Sylvanus Thayer (1785-1872), a well-known military engineer born in Braintree, who was superintendent of the United States Military Academy in 1817-1833 and has been called the “father of West Point.” There are large shoe factories and other manufactories. Bog iron was early found in Braintree, and iron-works, among the first in America, were established here in 1644. Braintree was first incorporated in 1640 from land belonging to Boston and called Mount Wollaston, and was named from the town in England. At Merry Mount, in that part of Braintree which is now Quincy, a settlement was established by Thomas Morton in 1625, but the gay life of the settlers and their selling rum and firearms to the Indians greatly offended the Pilgrims of Plymouth, who in 1627 arrested Morton; soon afterward Governor John Endecott of Massachusetts Bay visited Merry Mount, rebuked the inhabitants and cut down their Maypole. Later the place was abandoned, and in 1634 a Puritan settlement was made here. In 1708 the town was divided into the North Precinct and the South Precinct, and it was in the former, now Quincy, that John Adams, John Hancock and John Quincy Adams were born. Quincy was separated from Braintree in 1792 (there were further additions to Quincy from Braintree in 1856), and Randolph in 1793.

BRAINTREE, is a town in Norfolk County, Massachusetts, U.S.A., located on the Monatiquot River about 10 miles south of Boston. Population: (1890) 4,848; (1900) 5,981, including 1,250 foreign-born; (1905, state census) 6,879; (1910) 8,066. The New York, New Haven & Hartford railroad runs through the town and has stations in its villages of Braintree, South Braintree, and East Braintree, which are also served by suburban electric railways. In South Braintree, you'll find Thayer Academy (co-educational; opened in 1877) and the Thayer public library, both established in honor of General Sylvanus Thayer (1785-1872), a prominent military engineer born in Braintree who served as the superintendent of the United States Military Academy from 1817 to 1833 and is known as the "father of West Point." The town has large shoe factories and other manufacturing businesses. Bog iron was discovered early on in Braintree, and ironworks—some of the first in America—were established here in 1644. Braintree was first incorporated in 1640 from land that belonged to Boston and was originally called Mount Wollaston, named after a town in England. At Merry Mount, in what is now Quincy, a settlement was founded by Thomas Morton in 1625, but the settlers’ lively activities and their trade of rum and firearms with the Native Americans greatly offended the Pilgrims of Plymouth, who arrested Morton in 1627; shortly after, Governor John Endecott of Massachusetts Bay visited Merry Mount, reprimanded the inhabitants, and cut down their Maypole. The site was later abandoned, and in 1634 a Puritan settlement was established here. In 1708, the town was divided into the North Precinct and the South Precinct, with the former—now Quincy—being the birthplace of John Adams, John Hancock, and John Quincy Adams. Quincy became separate from Braintree in 1792 (with further additions to Quincy from Braintree in 1856), and Randolph was separated in 1793.

See D.M. Wilson, Quincy, Old Braintree and Merry Mount (Boston, 1906); C.F. Adams, Jr., Three Episodes of Massachusetts History (Boston, 1892 and 1896); W.S. Pattee, History of Old Braintree and Quincy (Quincy, 1878).

See D.M. Wilson, Quincy, Old Braintree and Merry Mount (Boston, 1906); C.F. Adams, Jr., Three Episodes of Massachusetts History (Boston, 1892 and 1896); W.S. Pattee, History of Old Braintree and Quincy (Quincy, 1878).


BRAKE, a town of Germany, in the grand duchy of Oldenburg, on the left bank of the Weser, about halfway between Bremen and the mouth of the river. Pop. 5000. It was for centuries the port of Bremen; and though, since the founding of Bremerhaven, it no longer possesses a monopoly of the river traffic as before, it still continues to flourish. Large docks have been constructed, and the place has a considerable import trade in English coal. Shipbuilding and weaving are carried on to some extent.

BRAKE, is a town in Germany, located in the Grand Duchy of Oldenburg, on the left bank of the Weser River, about halfway between Bremen and the river's mouth. Its population is 5,000. For centuries, it was the main port of Bremen; even though it no longer has a monopoly on river traffic since the establishment of Bremerhaven, it continues to thrive. Large docks have been built, and the town has a significant import trade in English coal. Shipbuilding and weaving also take place to some extent.

Brake in Oldenburg must be distinguished from the village of the same name in the principality of Lippe, known as Brake bei Limgo, which gave its name to the cadet line of the counts of Lippe-Brake (1621-1709).

Brake in Oldenburg must be distinguished from the village of the same name in the principality of Lippe, known as Brake bei Limgo, which gave its name to the cadet line of the counts of Lippe-Brake (1621-1709).


BRAKE. (1) A term for rough-tangled undergrowth, connected, according to the New English Dictionary, with “break,” to separate. The “brake-fern” (Pteris aquilina) is the common “bracken,” and is a shortened form of that northern Eng. word, derived from a Scand. word for “fern” (cf. Swed. bräken), though often confused with “brake,” undergrowth. (2) A term 414 applied to many implements and mechanical and other appliances, often spelled “break.” Here there are probably several words, difficult to separate in origin, connected either with “break,” to separate, and its derived meanings, or with the Fr. braquer (appearing in such expressions as braquer un canon, to turn or point a gun), from O. Fr. brac, modern bras, an arm, Lat. bracchium. The word is thus used of a toothed instrument for separating the fibre of flax and hemp; of the “break-rolls” employed in flour manufacture; of a heavy wheeled vehicle used for “breaking in” horses, and hence of a large carriage of the wagonette type; of an arm or lever, and so of the winch of a crossbow and of a pump handle, cf. “brake-pump”; of a curb or bridle for a horse; and of a mechanical appliance for checking the speed of moving vehicles, &c. It is noteworthy that the two last meanings are also possessed by the Fr. frein and the Ger. Bremse.

BRAKE. (1) A term for dense, tangled undergrowth, linked, according to the New English Dictionary, with “break,” meaning to separate. The “brake-fern” (Pteris aquilina) is commonly known as “bracken,” and it’s a shortened form of that northern English word, which comes from a Scandinavian word for “fern” (see Swed. bräken), although it’s often confused with “brake,” referring to undergrowth. (2) A term 414 used for many tools, mechanical, and other devices, often spelled “break.” Here, there are likely several words that are hard to distinguish in origin, linked either with “break,” meaning to separate, and its related meanings, or with the French braquer (used in expressions like braquer un canon, to turn or aim a gun), stemming from Old French brac, the modern bras, meaning an arm, Latin bracchium. The word is used to refer to a toothed tool for separating the fibers of flax and hemp; of the “break-rolls” used in flour production; of a heavy wheeled vehicle for “breaking in” horses, which is also a large carriage of the wagonette type; of an arm or lever, as well as the winch of a crossbow and a pump handle, see “brake-pump”; of a curb or bridle for a horse; and of a device for controlling the speed of moving vehicles, etc. It’s interesting to note that the last two meanings also apply to the French frein and the German Bremse.

Brakes, in engineering, are instruments by means of which mechanical energy may be expended in overcoming friction. They are used for two main classes of purpose: (1) to limit or decrease the velocity of a moving body, or to bring it completely to rest; and (2) to measure directly the amount of frictional resistance between two bodies, or indirectly the amount of energy given out by a body or bodies in motion. Machines in which brakes are employed for purposes of the second class are commonly known as dynamometers (q.v.). The other class is exemplified in the brakes used on wheeled vehicles and on cranes, lifts, &c. Here a body, or system of bodies, originally at rest, has been set in motion and has received acceleration up to a certain velocity, the work which has been done in that acceleration being stored up as “actual energy” in the body itself. Before the body can be brought to rest it must part with this energy, expending it in overcoming some external resistance. If the energy be great in proportion to the usual resistance tending to stop the body, the motion will continue for a long time, or through a long distance, before the energy has been completely expended and the body brought to rest. But in certain cases considerations of safety or convenience require that this time or distance be greatly shortened, and this is done by artificially increasing the external resistance for the time being, by means of a brake.

Brakes, in engineering, are devices that allow mechanical energy to be used to overcome friction. They serve two primary purposes: (1) to slow down or stop a moving object completely; and (2) to directly measure the amount of frictional resistance between two objects, or indirectly measure the amount of energy released by a moving object or objects. Machines that use brakes for the second purpose are commonly referred to as dynamometers (q.v.). The first purpose is illustrated by the brakes used on vehicles with wheels, cranes, lifts, etc. In this case, an object or system of objects that was initially at rest has been put into motion and has accelerated to a certain speed, with the work done during that acceleration being stored as "actual energy" in the object itself. Before the object can be brought to a stop, it needs to release this energy by overcoming some external resistance. If the energy is significant compared to the usual resistance trying to stop the object, it will continue moving for a long time or over a long distance before all the energy is spent and the object comes to a stop. However, in some situations, safety or convenience requires that this time or distance be significantly reduced, which is achieved by temporarily increasing the external resistance using a brake.

A simple method of obtaining this increased resistance is by pressing a block or shoe of metal or wood against the rim of a moving wheel, or by tightening a flexible strap or band on a rotating pulley or drum. In wheeled road vehicles, a wheel may be prevented from rotating by a chain passed through its spokes and attached to the body of the vehicle, when the resistance is increased by the substitution of a rubbing for a rolling action; or the same effect may be produced by fixing a slipper or skid under the wheel. Other forms of brake depend, not on the friction between two solid bodies, but on the frictional resistance of a fluid, as in “fan” and “pump” brakes. Thus the motion of revolving blades may be opposed by the resistance of the air or of a liquid in which they are made to work, or the motion of a plunger fitting tightly in a cylinder filled with a fluid may be checked by the fluid being prevented from escape except through a narrow orifice. The fly used to regulate the speed of the striking train in a clock is an example of a fan brake, while a pump brake is utilized for controlling the recoil of guns and in the hydraulic buffers sometimes fitted at terminal railway stations to stop trains that enter at excessive speed. On electric tramcars a braking effect is sometimes obtained by arranging the connexions of the motors so that they act as generators driven by the moving car. In this way a counter-torque is exerted on the axles. The current produced is expended by some means, as by being made to operate some frictional braking device, or to magnetize iron shoes carried on the car just over, but clear of, the running rails, to which they are then magnetically attracted (see Traction).

A straightforward way to increase resistance is by pressing a block or shoe made of metal or wood against the edge of a moving wheel, or by tightening a flexible strap or band around a rotating pulley or drum. In vehicles with wheels, you can prevent a wheel from turning by threading a chain through its spokes and attaching it to the vehicle's body. This increases resistance by replacing rolling action with rubbing action, or you can achieve the same result by placing a slipper or skid under the wheel. Other types of brakes rely on the frictional resistance of a fluid instead of the friction between two solid objects, like in “fan” and “pump” brakes. For instance, the spinning blades may face resistance from the air or liquid they operate in, or the movement of a plunger that fits tightly in a cylinder filled with fluid can be restricted by preventing the fluid from escaping except through a small opening. The fly used to control the speed of the striking mechanism in a clock is an example of a fan brake, while a pump brake is used to manage the recoil of guns and in hydraulic buffers at some train stations to stop trains that come in too fast. On electric trams, braking can sometimes be achieved by setting up the motors so they act as generators powered by the moving car. This creates a counter-torque on the axles. The current produced is used in some way, like powering a friction brake or magnetizing iron shoes on the car that hover just above the tracks, allowing them to be magnetically attracted (see Traction).

The simplest way of applying a brake is by muscular force, exerted through a hand or foot lever or through a screw, by which the brake block is pressed against the rim of the wheel or the band brake tightened on its drum. This method is sufficient in the case of most road vehicles, and is largely used on railway vehicles. But the power thus available is limited, and becomes inadequate for heavy vehicles moving at high speeds. Moreover, on a train consisting of a number of vehicles, the hand brakes on each of which are independent of all others, either a brakesman must be carried on each, or a number of the brakes must be left unused, with consequent loss of stopping power; while even if there is a brakesman on every vehicle it is impossible to secure that all the brakes throughout the train are applied with the promptness that is necessary in case of emergency.

The easiest way to apply a brake is through physical force, either by using a hand or foot lever or a screw, which presses the brake block against the wheel rim or tightens the band brake on its drum. This method works well for most road vehicles and is commonly used on trains. However, the available power is limited, making it insufficient for heavy vehicles traveling at high speeds. Additionally, on a train made up of several cars, where the hand brakes on each car operate independently, either a brakeman must be present on each car, or some brakes must remain unused, resulting in reduced stopping power. Even if there is a brakeman on every car, it’s impossible to ensure that all the brakes are applied quickly enough in case of an emergency.

Considerations of this sort led to the development of power brakes for railway trains. Of these there are five main classes:—

Considerations like this led to the development of power brakes for trains. There are five main types of these:—

(1) Mechanical brakes, worked by springs, friction wheels on the axle, chains wound on drums, or other mechanical devices, or by the force produced when, by reason of a sudden checking of the speed of the locomotive, the momentum Railway power brakes. of the cars causes pressure on the draw-bars or buffing devices. (2) Hydraulic brakes, worked by means of water forced through pipes into proper mechanism for transmitting its force to the brake-shoes. (3) Electric brakes. (4) Air and vacuum brakes, worked by compressed air or by air at atmospheric pressure operating on a vacuum. (5) Brakes worked by steam or water from the boiler of the engine, operating by means of a cylinder; the use of these is generally limited to the locomotive. Of this kind is the counter-pressure or water brake of L. le Chatelier. If the valve gear of a locomotive in motion be reversed and the steam regulator be left open, the cylinders act as compressors, pumping air from the exhaust pipe into the boiler against the steam pressure. A retarding effect is thus exercised, but at the cost of certain inconveniences due to the passage of hot air and cinders from the smoke box through the cylinders. To remedy these, le Chatelier arranged that a jet of hot water from the boiler should be delivered into the exhaust pipe, so that steam and not the hot flue gases should be pumped back.

(1) Mechanical brakes, operated by springs, friction wheels on the axle, chains wound on drums, or other mechanical devices, or by the force generated when, due to a sudden stop of the locomotive, the momentum of the cars puts pressure on the draw-bars or buffing devices. Train brakes. (2) Hydraulic brakes, operated by water pushed through pipes to the mechanism that transmits its force to the brake-shoes. (3) Electric brakes. (4) Air and vacuum brakes, operated by compressed air or by air at atmospheric pressure acting on a vacuum. (5) Brakes operated by steam or water from the engine's boiler, functioning through a cylinder; these are usually limited to the locomotive. One example is the counter-pressure or water brake designed by L. le Chatelier. If the valve gear of a moving locomotive is reversed and the steam regulator remains open, the cylinders work as compressors, pushing air from the exhaust pipe back into the boiler against the steam pressure. This creates a slowing effect but comes with some drawbacks due to hot air and cinders flowing from the smoke box through the cylinders. To address these issues, le Chatelier designed a system that delivers a jet of hot water from the boiler into the exhaust pipe, so that steam, instead of hot flue gases, gets pumped back.

Power brakes may be either continuous or independent—continuous if connected throughout the train and with the locomotive by pipes, wires, &c., as the compressed air, vacuum and electric brakes; independent if not so connected, as the buffer-brakes and hand-brakes. Continuous brakes may be divided into two other great classes—automatic and non-automatic. The former are so arranged that they are applied automatically on all the coaches of the train if any important part of the apparatus is broken, or the couplings between cars are ruptured; in an emergency they can be put on by the guard, or (in some cases) by a passenger. Non-automatic brakes can be applied only by the person (usually the engine-driver) to whom the management of them is given; they may become inoperative on all the coaches, and always on those which have become detached, if a coupling or other important and generally essential part is broken. Many mechanical and several hydraulic and electrical continuous brakes have been invented and tried; but experience has shown them so inadequate in practice that they have all practically disappeared, leaving the field to the air and the vacuum brakes. At first these were non-automatic, but in 1872 the automatic air-brake was invented by George Westinghouse, and the automatic vacuum-brake was developed a few years later.

Power brakes can be either continuous or independent—continuous if they are connected throughout the train and to the locomotive using pipes, wires, etc., like compressed air, vacuum, and electric brakes; independent if they are not connected, like buffer brakes and hand brakes. Continuous brakes can be divided into two main categories—automatic and non-automatic. Automatic brakes are designed to engage automatically on all the coaches of the train if an important part of the system fails, or if the couplings between cars break; in an emergency, they can be activated by the guard or, in some cases, by a passenger. Non-automatic brakes can only be applied by the designated operator (usually the engine driver); they may become inactive on all coaches and always on any that have come loose if a coupling or other important part fails. Many mechanical, hydraulic, and electrical continuous brakes have been invented and tested, but experience has shown them to be inadequate in practice, and they have mostly disappeared, leaving air and vacuum brakes as the primary options. Initially, these were non-automatic, but in 1872, George Westinghouse invented the automatic air brake, and the automatic vacuum brake was developed a few years later.

Those respects in which non-automatic brakes are inadequate will be understood from the following summary of the requirements most important in a train-braking apparatus: (1) It must be capable of application to every wheel throughout the train. (2) It must be so prompt in action that the shortest possible time shall elapse between its first application and the moment when the full power can be exerted throughout the train. (3) It must be capable of being applied by the engine-driver or by any of the officials in charge of the train, either in concert or independently. (4) The motion of the train must be arrested in the shortest possible distance. (5) The failure of a vital part must declare itself by causing the brake to be applied and to remain applied until the cause of failure is removed. (6) The breaking of the train in two or more parts must cause immediate automatic application of the brakes on all the coaches. (7) 415 When used in ordinary service stops it must be capable of gradual and uniform application (followed, if necessary, by a full emergency application at any part of the service application) and of prompt release under all conditions of application. (8) It must be simple in operation and construction, not liable to derangement, and inexpensive in maintenance.

Those areas where non-automatic brakes fall short will be clear from the following summary of the key requirements for a train-braking system: (1) It must be applicable to every wheel on the train. (2) It must respond quickly, minimizing the time between the initial application and when full power is engaged throughout the train. (3) It must be operable by the engineer or any staff in charge of the train, either together or separately. (4) The train must be stopped in the shortest distance possible. (5) If a crucial part fails, it must trigger the brakes to engage and stay engaged until the issue is fixed. (6) If the train separates into two or more sections, the brakes on all cars must apply automatically. (7) 415 During regular stops, it should allow for a gradual and consistent application (which can be followed by a full emergency application if needed) and should release quickly under all application conditions. (8) It must be straightforward to use and build, resistant to malfunction, and low in maintenance costs.

The Westinghouse non-automatic or “straight” air-brake, patented in 1869, consists in its simplest form of a direct-acting, steam-driven air-pump, carried on the locomotive, which forces compressed air into a reservoir, usually placed Simple air-brake. under the foot-plate of the locomotive. From this reservoir a pipe is led through the engine cab, where it is fitted with a three-way cock, to the rear of the locomotive tender, where it terminates in a flexible hose, on the end of which is a coupling. The coaches are furnished with a similar pipe, having hose and coupling at each end, which communicates with one end of a cylinder containing a piston, to the rod of which the brake-rods and levers are connected. The application of the brakes is effected by the engine-driver turning the three-way cock, so that compressed air flows through the pipe and, acting against one side of the brake-cylinder piston, applies the brake-shoes to the wheels by the movement of this piston and the rods and levers connected to it. To release the brakes the three-way cock is turned to cut off communication between the main reservoir and the train-pipe, and to open a port permitting the escape of the compressed air in the train-pipe and brake-cylinders. This brake was soon found defective and inadequate in many ways. An appreciable time was required for the air to flow through the pipes from the locomotive to the car-cylinders, and this time increased quickly with the length of the trains. Still more objectionable, however, was the fact that on detached coaches the air-brakes could not be applied, the result being sometimes serious collisions between the front and rear portions of the train.

The Westinghouse non-automatic or "straight" air brake, patented in 1869, consists, in its simplest form, of a direct-acting, steam-driven air pump mounted on the locomotive that forces compressed air into a reservoir, usually located under the locomotive's footplate. From this reservoir, a pipe runs through the engine cab, where it's equipped with a three-way valve, to the back of the locomotive tender, where it ends in a flexible hose with a coupling. The coaches have a similar pipe, with a hose and coupling at each end, connecting to one end of a cylinder that contains a piston. The rod of this piston is connected to the brake rods and levers. The brakes are applied when the engine driver turns the three-way valve, allowing compressed air to flow through the pipe, pushing against one side of the brake cylinder piston. This action presses the brake shoes against the wheels through the movement of the piston and the connected rods and levers. To release the brakes, the three-way valve is turned to disconnect the main reservoir from the train pipe and open a port that allows the compressed air in the train pipe and brake cylinders to escape. However, this brake was quickly found to be defective and inadequate in many ways. It took a noticeable amount of time for the air to travel through the pipes from the locomotive to the car cylinders, and this time increased significantly with longer trains. Even more concerning was that the air brakes couldn't be applied to detached coaches, sometimes leading to serious collisions between the front and rear parts of the train.

Fig. 1.—Westinghouse Air-Brake.
Section through Triple-Valve and Brake-Cylinder.

In the Westinghouse “ordinary” automatic air-brake a main air reservoir on the engine is kept charged with compressed air at 80 ℔ per sq. in. by means of the steam-pump, which may be controlled by an automatic governor. On electric Automatic air-brake. railways a pump, driven by an electric motor, is generally employed; but occasionally, on trains which run short distances, no pump is carried, the main reservoir being charged at the terminal points with sufficient compressed air for the journey. Conveniently placed to the driver’s hand is the driver’s valve, by means of which he controls the flow of air from the main reservoir to the train-pipe, or from the train-pipe to the atmosphere. A reducing-valve is attached to the driver’s valve, and in the normal or running position of the latter reduces the pressure of the air flowing from the main reservoir to the train-pipe by 10 or 15 ℔ per sq. in. From the engine a train-pipe runs the whole length of the train, being rendered continuous between each vehicle and between the engine and the rest of the train by flexible hose couplings. Each vehicle is provided with a brake-cylinder H (fig. 1), containing a piston, the movement of which applies the brake blocks to the wheels, an “auxiliary air-reservoir” G, and an automatic “triple-valve” F. The auxiliary reservoir receives compressed air from the train-pipe and stores it for use in the brake-cylinder of its own vehicle, and both the auxiliary reservoir and the triple-valve are connected directly or indirectly with the train-pipe through the pipe E. The automatic action of the brake is due to the construction of the triple-valve, the principal parts of which are a piston and slide-valve, so arranged that the air in the auxiliary reservoir acts at all times on the side of the piston to which the slide-valve is attached, while the air in the train-pipe exerts its pressure on the opposite side. So long as the brakes are not in operation, the pressures in the train-pipe, triple-valve and auxiliary reservoir are all equal, and there is no compressed air in the brake-cylinder. But when, in order to apply the brake, the driver discharges air from the train-pipe, this equilibrium is destroyed, and the greater pressure in the auxiliary reservoir forces the triple-valve to a position which allows air from the auxiliary reservoir to pass directly into the brake-cylinder. This air forces out the piston of the brake-cylinder and applies the brakes, connexion being made with the brake-rigging at R. The purpose of the small groove n which establishes communication between the two sides of the piston when the brakes are off, is to prevent their unintended application through slight leakage from the train-pipe. To release the brakes, the driver, by moving the handle of his valve to the release position, admits air from the main reservoir to the train-pipe, the pressure in which thus becomes greater than that in the auxiliary reservoir; the piston and slide-valve of the triple-valve are thereby forced back to their normal position, the compressed air in the brake-cylinder is discharged, and the piston is brought back by the coiled spring, thus releasing the brakes. At the same time the auxiliary reservoir is recharged.

In the Westinghouse "ordinary" automatic air brake, a main air reservoir on the engine is kept filled with compressed air at 80 psi using a steam pump, which can be controlled by an automatic governor. On electric railways, a pump powered by an electric motor is usually used; however, sometimes, on trains that operate over short distances, no pump is installed. Instead, the main reservoir is filled at the station with enough compressed air for the trip. The driver's valve is conveniently located within reach, allowing the driver to control the flow of air from the main reservoir to the train-pipe or from the train-pipe to the outside. A reducing valve is attached to the driver's valve, and when the valve is in its normal running position, it reduces the air pressure flowing from the main reservoir to the train-pipe by 10 to 15 psi. A train-pipe runs the entire length of the train, connecting each vehicle and linking the engine to the rest of the train through flexible hose couplings. Each vehicle has a brake cylinder H (fig. 1) that contains a piston, which pushes the brake blocks against the wheels, along with an “auxiliary air reservoir” G and an automatic “triple-valve” F. The auxiliary reservoir collects compressed air from the train-pipe and stores it for the brake cylinder of its own vehicle, and both the auxiliary reservoir and the triple-valve are directly or indirectly connected to the train-pipe via pipe E. The automatic braking action is a result of the triple-valve's design, which includes a piston and slide-valve. These components are arranged so that air in the auxiliary reservoir always acts on the side of the piston with the slide-valve, while the air in the train-pipe pushes against the opposite side. As long as the brakes are not engaged, the pressures in the train-pipe, triple-valve, and auxiliary reservoir are equal, meaning there’s no compressed air in the brake cylinder. When the driver lets air out of the train-pipe to apply the brakes, this balance is disrupted, and the higher pressure in the auxiliary reservoir pushes the triple-valve to a position that allows air from the auxiliary reservoir to enter the brake cylinder. This air pushes the piston of the brake cylinder and applies the brakes, connecting to the brake rigging at R. The purpose of the small groove n, which connects the two sides of the piston when the brakes are off, is to prevent accidental brake application due to slight air leaks from the train-pipe. To release the brakes, the driver moves the handle of his valve to the release position, allowing air from the main reservoir into the train-pipe. This increases the pressure in the train-pipe above that in the auxiliary reservoir, causing the piston and slide-valve of the triple-valve to return to their normal position, discharging the compressed air in the brake cylinder, and allowing the piston to be pushed back by the coiled spring, thus releasing the brakes. At the same time, the auxiliary reservoir is refilled.

With this “ordinary” brake, since an appreciable time is required for the reduction of pressure to travel along the train-pipe from the engine, the brakes are applied sensibly sooner at the front than at the end of the train, and with long trains this Quick-acting air-brake. difference in the time of application becomes a matter of importance. The “quick-acting” brake was introduced to remedy this defect. For it the triple valve is provided with a supplementary mechanism, which, when the air pressure in the train-pipe is suddenly or violently reduced, opens a passage whereby air from the train-pipe is permitted to enter the brake-cylinder directly. The result is twofold: not only is the pressure from the auxiliary reservoir acting in the brake-cylinder reinforced by the pressure in the train-pipe, but the pressure in the train-pipe is reduced locally in every vehicle in extremely rapid succession instead of at the engine only, and in consequence all the brakes are applied almost simultaneously throughout the train. The same effect is produced should the train break in two, or a hose or any part of the train-pipe burst; but during ordinary or “service” stops the triple-valve acts exactly as in the ordinary brake, the quick-acting portion, that is, the vertical piston and valve seen in fig. 1, not coming into operation. When the handle Z is turned to the position X the quick-acting mechanism is rendered inoperative, and when it is at Y the brake on the vehicle concerned is wholly cut out of action.

With this “ordinary” brake, since it takes a noticeable amount of time for the pressure reduction to travel along the train line from the engine, the brakes engage noticeably sooner at the front than at the back of the train. With long trains, this delay in application becomes significant. The “quick-acting” brake was introduced to fix this issue. For this system, the triple valve comes with an extra mechanism that, when the air pressure in the train line drops suddenly or sharply, opens a pathway allowing air from the train line to flow directly into the brake cylinder. The result is twofold: not only does the pressure from the auxiliary reservoir in the brake cylinder receive a boost from the pressure in the train line, but the pressure in the train line is quickly reduced at every vehicle instead of just at the engine, causing all the brakes to engage almost simultaneously across the train. The same effect occurs if the train breaks in two or if a hose or any part of the train line bursts; however, during normal or “service” stops, the triple valve operates exactly like the ordinary brake, with the quick-acting part, which is the vertical piston and valve shown in fig. 1, remaining inactive. When the handle Z is turned to position X, the quick-acting mechanism is disabled, and when it’s at Y, the brake on that specific vehicle is completely disengaged.

A further improvement introduced in the Westinghouse brake in 1906 was designed to give quick action for service as well as emergency stops. In this the triple-valve is substantially the same as in the ordinary brake. The additional mechanism of the quick-acting portion is dispensed with, but instead, a small chamber, normally containing air at atmospheric pressure, is provided on each vehicle, and is so arranged that it is put into communication with the train-pipe by the first movement of the triple-valve. As soon, therefore, as the driver, by lowering the pressure in the train-pipe, causes the triple-valve in the foremost vehicle of the train to operate, a certain quantity of air rushes out of the train-pipe into the small chamber; a further local reduction in the pressure of the train-pipe in that vehicle is thereby effected, and this almost instantaneously actuates the triple-valve of the succeeding vehicle, and so on throughout the train. In this way, on a train 1800 ft. long, consisting of sixty 30-ft. vehicles, the brake-blocks may be applied, with equal force, on the last vehicle about 2½ seconds later than on the first.

A further improvement introduced in the Westinghouse brake in 1906 was designed for quicker action during both service and emergency stops. In this system, the triple-valve is basically the same as in the standard brake. Instead of adding a mechanism for quick action, a small chamber that normally holds air at atmospheric pressure is installed on each vehicle. This chamber is set up to connect with the train-pipe at the first movement of the triple-valve. Therefore, as soon as the driver lowers the pressure in the train-pipe, causing the triple-valve in the front vehicle of the train to engage, a certain amount of air rushes from the train-pipe into the small chamber. This results in a further drop in pressure in the train-pipe of that vehicle, which almost instantly activates the triple-valve of the next vehicle, and this process continues throughout the entire train. This way, on a train that is 1800 ft. long, made up of sixty 30-ft. vehicles, the brake blocks can be applied with equal force on the last vehicle about 2½ seconds after they've been applied on the first.

Brake-blocks can be applied, without skidding the wheels, with greater pressure at high speeds than at low. Advantage is taken of this fact in the design of the Westinghouse “high-speed” brake, invented in 1894, which consists of High-speed air-brake. attachments enabling the pressure in the train-pipe and reservoirs to be increased at the will of the driver. The increased pressure acting in the brake-cylinder increases in the same proportion the pressure of the brake-shoes against the wheels. Attached to the brake cylinder is a valve for automatically reducing 416 the pressure therein proportionately to the reduction in speed, until the maximum pressure under which the brakes are operated in making ordinary stops is reached, when this valve closes and the maximum safe pressure for operating the brakes at ordinary speeds is retained until a stop is made.

Brake blocks can be applied without skidding the wheels, using greater pressure at high speeds than at low. This fact is utilized in the design of the Westinghouse “high-speed” brake, created in 1894, which includes attachments that allow the driver to increase the pressure in the train pipe and reservoirs at will. The increased pressure in the brake cylinder proportionally increases the pressure of the brake shoes against the wheels. Attached to the brake cylinder is a valve that automatically reduces the pressure based on the reduction in speed, until the maximum pressure used for regular stops is reached. At that point, this valve closes, maintaining the maximum safe pressure for operating the brakes at regular speeds until a complete stop is made.

Fig. 2—Automatic Vacuum-Brake, showing its general arrangement.

In the automatic vacuum-brake, the exhausting apparatus generally consists of a combined large and small ejector (a form of jet-pump) worked by steam and under the control of the driver, though sometimes a mechanical air-pump, driven Automatic Vacuum-Brake. from the crosshead of the locomotive, is substituted for the small ejector. These ejectors, of which the small one is at work continuously while the large one is only employed when it is necessary to create vacuum quickly, e.g. to take off the brakes after a short stop, produce in the train-pipe a vacuum equal to about 20 in. of mercury, or in other words reduce the pressure within it to about one-third of an atmosphere. The train-pipe extends the whole length of the train and communicates under each vehicle with a cylinder, to the piston of which, by suitable rods and levers, the brake-shoes are connected. The communication between the train-pipe and the cylinder is controlled by a ball-valve, one form of which is shown in fig. 2. The release-valve is for the purpose of withdrawing the ball from its seat when it is necessary to take off the brakes by hand; it is made air-tight by a small diaphragm, the pressure of which, when there is vacuum in the pipe, pulls in the spindle and allows the ball to fall freely into its seat. When air is exhausted through the train-pipe it travels out from below the piston direct, and from above it past the ball, which is thus forced off its seat, to roll back again when the exhaustion is complete. In this state of affairs the piston is held in equilibrium and the brake-blocks are free of the wheels. To apply them, air is admitted to the train-pipe, either purposely by the guard or driver, or accidentally by the rupture of the train-pipe or coupling-hose between the vehicles. The air passes to the lower side of the piston, but is prevented from gaining access to the upper side by the ball-valve which blocks the passage; hence the pressure becomes different on the two sides of the piston, which in consequence is forced upwards and thus applies the brakes. They are released by the re-establishment of equilibrium (by the use of the large ejector if necessary); when this is done the piston falls and the brakes drop off. The general arrangement of the apparatus is shown in fig. 2. To render the application of the brakes nearly simultaneous throughout a long train, the valve in the guard’s van is arranged to open automatically when the driver suddenly lets in air to the train-pipe. This valve has a small hole through its stem, and is secured at the top by a diaphragm to a small dome-like chamber, which is exhausted when a vacuum is created in the train-pipe. A gradual application destroys the vacuum in the chamber as quickly as in the pipe and the diaphragm remains unmoved; but with a sudden one the vacuum below the valve is destroyed more quickly, and with the difference of pressure the diaphragm lifts the valve and admits air. A rapid-acting valve (fig. 3) is sometimes interposed between the train-pipe and the cylinder on each vehicle. In the normal or running position, a vacuum is maintained below the valve A and above the diaphragm B, while the chamber below B and above A is at atmospheric pressure. For an emergency application of the brake, air is suddenly admitted to the train-pipe and thus to the lower side of A, and the pressure acting on the under side of B is sufficient to cause it to lift the valve A, and to admit air from the atmosphere, both to the brake-cylinder and the train-pipe, through the clappet-valve D, which also rises because of the difference of pressure on its two sides. In a graduated application, neither D nor A rises from its seat, but air from the train-pipe finds access to the brake-cylinder by passing around the peg C, which is so proportioned as to allow the necessary amount of air to enter the brake-cylinder, and so obtain simultaneous action of the brake throughout the train. When the handle E is turned so as to prevent the clappet D from rising, the rapid action is cut out and the brake acts as an ordinary vacuum automatic brake. A modification of the device for obtaining accelerated action, described above in connexion with the Westinghouse brake, is also applicable. Accelerating chambers, again containing air at atmospheric pressure, are provided on each vehicle and are connected with the train-pipe by valves which open as the vacuum in the latter begins to decrease with the operation of the driver’s valve. The air thus admitted into the train-pipe effects a still further local reduction of the vacuum, which is sufficient to actuate the accelerating valve of each next succeeding vehicle and is thus rapidly propagated throughout the train.

In the automatic vacuum brake system, the exhaust apparatus typically includes a combination of a large and a small ejector (a type of jet-pump) powered by steam and controlled by the driver, although sometimes a mechanical air pump, driven from the locomotive's crosshead, replaces the small ejector. The small ejector operates continuously while the large one is only used when a quick vacuum is needed, for example, to release the brakes after a brief stop. These ejectors create a vacuum in the train pipe that equals about 20 inches of mercury, effectively lowering the pressure to about one-third of an atmosphere. The train pipe runs the entire length of the train and connects to each vehicle with a cylinder, which is linked to the brake shoes by appropriate rods and levers. The connection between the train pipe and the cylinder is regulated by a ball valve, one example of which is shown in fig. 2. The release valve is designed to pull the ball away from its seat when the brakes need to be manually released; it seals tightly with a small diaphragm that, when a vacuum exists in the pipe, pulls in the spindle and lets the ball drop into its seat. When air is drained from the train pipe, it flows out directly beneath the piston and from above it past the ball, which is thus lifted off its seat and rolls back into position once the air is completely evacuated. In this situation, the piston remains balanced and the brake blocks are free of the wheels. To engage the brakes, air is let into the train pipe, either intentionally by the guard or driver or accidentally due to a rupture in the train pipe or coupling hose between the cars. The air reaches the lower side of the piston but cannot enter the upper side because of the ball valve blocking the passage; this causes a pressure difference on both sides of the piston, forcing it upwards and applying the brakes. They are released by restoring balance (using the large ejector if needed); when this occurs, the piston descends and the brakes disengage. The overall setup of the apparatus is illustrated in fig. 2. To ensure that the brakes apply nearly simultaneously across a long train, the valve in the guard's van is designed to open automatically when the driver rapidly introduces air into the train pipe. This valve includes a small hole in its stem and is secured at the top by a diaphragm attached to a small dome-shaped chamber that gets evacuated when a vacuum is produced in the train pipe. A gradual application of the brakes reduces the vacuum in the chamber as quickly as in the pipe, keeping the diaphragm stationary; however, a sudden application quickly eliminates the vacuum below the valve, resulting in a pressure difference that lifts the diaphragm and allows air in. A quick-acting valve (fig. 3) is often placed between the train pipe and the cylinder on each vehicle. In the normal running position, a vacuum is sustained below valve A and above diaphragm B, while the chamber below B and above A is at atmospheric pressure. For an emergency brake application, air is rapidly introduced into the train pipe and thus to the lower side of A, creating enough pressure to lift valve A and let air from the atmosphere into both the brake cylinder and the train pipe through clappet valve D, which also rises due to the pressure difference on its two sides. During a graduated application, neither D nor A lifts from their seats, but air from the train pipe can reach the brake cylinder by passing around peg C, which is sized to allow the necessary amount of air into the brake cylinder for simultaneous brake action across the train. When handle E is turned to prevent clappet D from rising, the rapid action is deactivated and the brake functions as a standard vacuum automatic brake. A variation of the system for achieving accelerated action, mentioned earlier with the Westinghouse brake, can also be used. Additional accelerating chambers, containing air at atmospheric pressure, are placed on each vehicle and connected to the train pipe by valves that open as the vacuum in the pipe decreases due to the driver's adjustments. The incoming air further reduces the vacuum locally, which is enough to activate the accelerating valve on each subsequent vehicle, spreading the effect throughout the train quickly.

Famous tests of railway brakes were those made by Sir Douglas Galton and Mr George Westinghouse on the London, Brighton and South Coast railway, in England, in 1878, and by a committee of the Master Car Builders’ Association, Brake trials. near Burlington, Iowa, in 1886 and 1887. The object of the former series (for accounts of which see Proc. Inst. Mech. Eng., 1878, 1879) was to determine the co-efficient of friction between the brake-shoe and the wheel, and between the wheel and rail at different velocities when the wheels were revolving and when skidded, i.e. stopped in their rotation and caused to slide. These experiments were the first of their kind ever undertaken, and for many years their results furnished most of the trustworthy data obtainable on the friction of motion. It was found that the co-efficient of friction between cast-iron shoes and steel-tired wheels increased as the speed of the train decreased, varying from 0.111 at 55 m. an hour to 0.33 when the train was just moving. It also decreased with the time during which the brakes were applied; thus at 20 m. an hour the 417 co-efficient was at the beginning 0.182, after ten seconds 0.133, after twenty seconds 0.099. Generally speaking, especially at moderate speeds, the decrease in the co-efficient of friction due to time is less than the increase due to decrease of speed, although when the time is long the reverse may be true. When the wheels are skidded the retardation of the train is always reduced; therefore, for the greatest braking effect, the pressures on the brake-shoes should never be sufficient to cause the wheels to slide on the rails. The Burlington brake tests were undertaken to determine the practicability of using power brakes on long and heavy freight trains. In the 1886 tests there were five competitors—three buffer-brakes, one compressed-air brake, and one vacuum-brake. The tests comprised stops with trains of twenty-five and fifty vehicles, at 20 and 40 m. an hour, on the level and on gradients of 1 in 100. They demonstrated that the buffer-brakes were inadequate for long trains, and that considerable improvements in the continuous brakes, both compressed-air and vacuum, would be needed to make them act quickly enough to avoid excessive shocks in the rear vehicles. In 1887 the trials of the year before were repeated by the same committee, and at the same place. Trains of fifty vehicles, about 2000 ft. long and fitted with each brake, were again provided, and there were again five competitors, but they all entered continuous brakes—three compressed-air brakes, one vacuum and one electric. The results of the first day’s test of the train equipped with Westinghouse brakes are shown in Table I., the distances in which are the feet run by the train after the brakes were set, and the times the seconds that elapsed from the application of the brakes to full stop.

Famous tests of railway brakes were conducted by Sir Douglas Galton and Mr. George Westinghouse on the London, Brighton and South Coast Railway in England in 1878, and by a committee from the Master Car Builders’ Association near Burlington, Iowa, in 1886 and 1887. The purpose of the earlier tests (for details, see Proc. Inst. Mech. Eng., 1878, 1879) was to find out the coefficient of friction between the brake shoe and the wheel, as well as between the wheel and rail at various speeds, both when the wheels were turning and when they skidded, i.e. stopped spinning and slid. These experiments were the first of their kind, and for many years provided most of the reliable data available on motion friction. It was discovered that the coefficient of friction between cast-iron shoes and steel-tired wheels increased as the speed of the train decreased, ranging from 0.111 at 55 mph to 0.33 when the train was moving slowly. The coefficient also decreased with the amount of time the brakes were applied; for example, at 20 mph, the coefficient started at 0.182, then dropped to 0.133 after ten seconds, and to 0.099 after twenty seconds. Generally, especially at moderate speeds, the reduction in the coefficient of friction over time is less than the increase due to the decrease in speed, although this can reverse when the duration is long. When the wheels skid, the train's deceleration is always lessened; thus, for optimal braking performance, the pressure on the brake shoes should never be enough to make the wheels slide on the rails. The Burlington brake tests were conducted to assess the feasibility of using power brakes on long and heavy freight trains. In the 1886 tests, there were five competitors: three buffer brakes, one compressed-air brake, and one vacuum brake. The tests involved stops with trains of twenty-five and fifty cars at speeds of 20 and 40 mph, on flat ground and on slopes of 1 in 100. They showed that buffer brakes were insufficient for long trains and that significant improvements were needed for the continuous brakes, both compressed-air and vacuum, to make them responsive enough to prevent excessive jolts in the trailing cars. In 1887, the same committee repeated the previous year's trials at the same location. Trains of fifty cars, about 2000 ft. long, fitted with each type of brake, were again tested. There were again five competitors, but this time they all used continuous brakes: three compressed-air brakes, one vacuum brake, and one electric brake. The results of the first day’s test of the train equipped with Westinghouse brakes are shown in Table I., which lists the distances (in feet) the train traveled after the brakes were applied and the times (in seconds) it took to come to a complete stop.

Fig. 3—Rapid-acting Vacuum-Brake Valve.

Table I.—Stops of a Train of Fifty Empty Cars, 1887Automatic Air-Brakes.

Table 1.—Stops of a Train of Fifty Empty Cars, 1887Automatic Air-Brakes.

Speed in
Miles per
Hour.
Distance in
Feet.
Time in
Seconds.
Equivalent Distance
at 20 m. and 40.
19½ 186  9¾ 196 · ·
19¼ 215 11 233 · ·
36½ 588 17 · · 693

The remarkable shortness of these stops is the more evident when they are compared with the best results obtained in 1886, as shown in Table II.

The noticeable brevity of these stops is even clearer when compared to the best results recorded in 1886, as shown in Table II.

Table II.—Stops of a Train of Fifty Empty Cars, 1886Automatic Air-Brakes.

Table 2.—Stops of a Train of Fifty Empty Cars, 1886Automatic Air-Brakes.

Speed in
Miles.
Distance in
Feet.
Time in
Seconds.
Equivalent Distance
at 20 m. and 40.
23.5 424 17½ 307 · ·
20.3 354 16 340 · ·
40  922 22½ · · 922
40  927 22¾ · · 927

The time that elapsed between the application of the brakes on the engine and on the fiftieth vehicle was almost twice as great in 1886 as in 1887, being in the latter tests only five to six seconds, and in 1887 the stops were made in less than two-thirds the distance required in 1886. Still, violent shocks were caused by the rear vehicles running against those in front, before the brakes on the former were applied with sufficient force to hold them, and these shocks were so severe as to make the use of the brakes in practice impossible on long trains. When the triple-valves were actuated electrically, however, the stops were still further improved, as shown in Table III.

The time it took to apply the brakes on the engine and the fiftieth vehicle was almost twice as long in 1886 as it was in 1887, taking only five to six seconds during the latter tests. In 1887, stops were made in less than two-thirds the distance needed in 1886. However, there were still violent jolts caused by the rear vehicles crashing into the ones in front before the brakes on the rear vehicles were applied with enough force to stop them. These jolts were so intense that using the brakes effectively on long trains became impossible. When the triple-valves were activated electrically, though, the stops improved even more, as shown in Table III.

Table III.—Stops of a Train of Fifty Empty Cars— Electric Application of Air-Brakes.

Table 3.—Stops of a Train of Fifty Empty Cars—Electric Use of Air-Brakes.

Speed in
Miles.
Distance in
Feet.
Time in
Seconds.
Equivalent Distance
at 20 m. and 40.
21½ 160  7 139 · ·
23  183  8 138 · ·
38  475 14½ · · 519
36½ 460 14 · · 545

Although the same levers, shoes, rods and other connexions were used, there were no shocks in the fiftieth car of the train on any stop, whether on the level or on a gradient. The committee in charge reported that the best type of brake for long freight trains was one operated by air, in which the valves were actuated by electricity, but they expressed doubt of the practicability of using electricity on freight trains. The Westinghouse Company then proceeded to quicken the action of the triple-valve, operated by air only, so that stops with fifty-car trains could be made without shock, and without electrically operated valves; and they were so successful in this respect that, towards the end of the same year, 1887, with a train of fifty vehicles, stops were made without shock, fully equalling in quickness and shortness of distance run any that had been made at the trials by the electrically operated brakes.

Although the same levers, shoes, rods, and other connections were used, there were no jolts in the fiftieth car of the train at any stop, whether on level ground or on a slope. The committee in charge reported that the best type of brake for long freight trains was one operated by air, with valves activated by electricity, but they expressed doubts about the feasibility of using electricity on freight trains. The Westinghouse Company then worked to speed up the action of the triple-valve, operated only by air, so that stops with fifty-car trains could be made smoothly and without electrically operated valves. They were so successful in this that by the end of the same year, 1887, stops were made with a train of fifty cars without any jolts, equal in speed and distance to those achieved during trials with the electrically operated brakes.

In 1889 some further tests were made by Sir Douglas Galton with the automatic vacuum-brake, on a practically level portion of the Manchester, Sheffield & Lincolnshire railway (now the Great Central). The train was composed of an engine, tender and forty carriages, the total length over buffers being 1464 ft., and the total weight 574 tons, of which 423 tons were braked. At a speed of about 32 m. an hour this train was brought to a standstill in twelve seconds after the application of the brakes, in a distance of 342 ft.

In 1889, Sir Douglas Galton conducted more tests with the automatic vacuum brake on a nearly level section of the Manchester, Sheffield & Lincolnshire railway (now the Great Central). The train consisted of an engine, tender, and forty carriages, measuring a total length of 1,464 ft over the buffers, and weighing a total of 574 tons, with 423 tons being braked. At a speed of around 32 miles per hour, the train came to a full stop in twelve seconds after the brakes were applied, covering a distance of 342 ft.


BRAKELOND, JOCELYN DE (fl. 1200), English monk, and author of a chronicle narrating the fortunes of the monastery of Bury St Edmunds between 1173 and 1202. He is only known to us through his own work. He was a native of Bury St Edmunds; he served his novitiate under Samson of Tottington, who was at that time master of the novices, but afterwards sub-sacrist, and, from 1182, abbot of the house. Jocelyn took the habit of religion in 1173, during the time of Abbot Hugo (1157-1180), through whose improvidence and laxity the abbey had become impoverished and the inmates dead to all respect for discipline. The fortunes of the abbey changed for the better with the election of Samson as Hugo’s successor. Jocelyn, who became abbot’s chaplain within four months of the election, describes the administration of Samson at considerable length. He tells us that he was with Samson night and day for six years; the picture which he gives of his master, although coloured by enthusiastic admiration, is singularly frank and intimate. It is all the more convincing since Jocelyn is no stylist. His Latin is familiar and easy, but the reverse of classical. He thinks and writes as one whose interests are wrapped up in his house; and the unique interest of his work lies in the minuteness with which it describes the policy of a monastic administrator who was in his own day considered as a model.

BRAKELOND, JOCELYN DE (fl. 1200), an English monk and author of a chronicle detailing the fortunes of Bury St Edmunds monastery from 1173 to 1202. We know about him solely from his own writings. He was originally from Bury St Edmunds and served his novitiate under Samson of Tottington, who at that time was the master of novices but later became the sub-sacrist and, starting in 1182, the abbot of the monastery. Jocelyn became a monk in 1173, during the era of Abbot Hugo (1157-1180), under whom the abbey fell into decline due to mismanagement and lax discipline. However, the abbey's situation improved with Samson’s election as Hugo's successor. Jocelyn became the abbot's chaplain within four months of this election and provides a detailed account of Samson's administration. He mentions that he was with Samson day and night for six years; the portrayal he gives of his master, though filled with enthusiastic admiration, is remarkably candid and personal. This makes it all the more credible since Jocelyn is not particularly stylistic. His Latin is straightforward and accessible, but far from classical. He thinks and writes from a perspective deeply invested in his monastery; the unique value of his work lies in the detailed depiction of the policies of a monastic administrator who was regarded as a model in his time.

Jocelyn has also been credited with an extant but unprinted tract on the election of Abbot Hugo (Harleian MS. 1005, fo. 165); from internal evidence this appears to be an error. He mentions a (non-extant) work which he wrote, before the Cronica, on the miracles of St Robert, a boy whom the Jews of Bury St Edmunds were alleged to have murdered (1181).

Jocelyn has also been attributed with an existing but unpublished piece about the election of Abbot Hugo (Harleian MS. 1005, fo. 165); based on internal evidence, this seems to be a mistake. He refers to a (non-existent) work he wrote before the Cronica, about the miracles of St. Robert, a boy whom the Jews of Bury St. Edmunds were said to have killed (1181).

See the editions of the Cronica Jocelini de Brakelonda by T. Arnold (in Memorials of St Edmund’s Abbey, vol. i. Rolls series, 1890), and by J.G. Rokewood (Camden Society, 1840); also Carlyle’s Past and Present, book ii. A translation and notes are given in T.E. Tomlin’s Monastic and Social Life in the Twelfth Century in the Chronicle of Jocelyn de Brakelond (1844). There is also a translation of Jocelyn by Sir E. Clarke (1907).

See the editions of the Cronica Jocelini de Brakelonda by T. Arnold (in Memorials of St Edmund’s Abbey, vol. i. Rolls series, 1890), and by J.G. Rokewood (Camden Society, 1840); also Carlyle’s Past and Present, book ii. A translation and notes are given in T.E. Tomlin’s Monastic and Social Life in the Twelfth Century in the Chronicle of Jocelyn de Brakelond (1844). There is also a translation of Jocelyn by Sir E. Clarke (1907).


BRAMAH, JOSEPH (1748-1814), English engineer and inventor, was the son of a farmer, and was born at Stainborough, Yorkshire, on the 13th of April 1748. Incapacitated for agricultural labour by an accident to his ankle, on the expiry of his indentures he worked as a cabinet-maker in London, where he subsequently started business on his own account. His first patent for some improvements in the mechanism of water-closets was taken out in 1778. In 1784 he patented the lock known by his name, and in 1795 he invented the hydraulic press. For an important part of this, the collar which secured water-tightness between the plunger and the cylinder in which it 418 worked, he was indebted to Henry Maudslay, one of his workmen, who also helped him in designing machines for the manufacture of his locks. In 1806 he devised for the Bank of England a numerical printing machine, specially adapted for bank-notes. Other inventions of his included the beer-engine for drawing beer, machinery for making aerated waters, planing machines, and improvements in steam-engines and boilers and in paper-making machinery. In 1785 he suggested the possibility of screw propulsion for ships, and in 1802 the hydraulic transmission of power; and he constructed waterworks at Norwich in 1790 and 1793. He died in London on the 9th of December 1814.

BRAMAH, JOSEPH (1748-1814), English engineer and inventor, was born on April 13, 1748, in Stainborough, Yorkshire, to a farming family. An accident to his ankle prevented him from working in agriculture, so after finishing his apprenticeship, he became a cabinet maker in London, where he eventually started his own business. He obtained his first patent in 1778 for improvements to the mechanism of water closets. In 1784, he patented a lock that carries his name, and in 1795, he invented the hydraulic press. A key component of this press, the collar that ensured water-tightness between the plunger and the cylinder, was designed with the help of Henry Maudslay, one of his workers, who also assisted him in designing machines to produce his locks. In 1806, he created a numerical printing machine for the Bank of England, specifically designed for banknotes. His other inventions include a beer engine for drawing beer, machinery for making carbonated water, planing machines, and enhancements for steam engines, boilers, and paper-making equipment. In 1785, he proposed the idea of screw propulsion for ships, and in 1802, he introduced the concept of hydraulic power transmission. He also built waterworks in Norwich in 1790 and 1793. He passed away in London on December 9, 1814.


BRAMANTE, or Bramante Lazzari (c. 1444-1514), Italian architect and painter, whose real name was Donate d’Augnolo, was born at Monte-Asdrualdo in Urbino, in July 1444. He showed a great taste for drawing, and was at an early age placed under Fra Bartolommeo, called Fra Carnavale. But though he afterwards gained some fame as a painter, his attention was soon absorbed by architecture. He appears to have studied under Scirro Scirri, an architect in his native place, and perhaps under other masters. He then set out from Urbino, and proceeded through several of the towns of Lombardy, executing works of various magnitudes, and examining patiently all remains of ancient art. At last, attracted by the fame of the great Duomo, he reached Milan, where he remained from 1476 to 1499. He seems to have left Milan for Rome about 1500. He painted some frescoes at Rome, and devoted himself to the study of the ancient buildings, both in the city and as far south as Naples. About this time the Cardinal Caraffa commissioned him to rebuild the cloister of the Convent della Pace. Owing to the celerity and skill with which Bramante did this, the cardinal introduced him to Pope Alexander VI. He began to be consulted on nearly all the great architectural operations in Rome, and executed for the pope the palace of the Cancelleria or chancery. Under Julius II., Alexander’s successor, Bramante’s talents began to obtain adequate sphere of exercise. His first large work was to unite the straggling buildings of the palace and the Belvedere. This he accomplished by means of two long galleries or corridors enclosing a court. The design was only in part completed before the death of Julius and of the architect. So impatient was the pope and so eager was Bramante, that the foundations were not sufficiently well attended to; great part of it had, therefore, soon to be rebuilt, and the whole is now so much altered that it is hardly possible to decipher the original design.

BRAMANTE, or Bramante Lazzari (c. 1444-1514), Italian architect and painter, whose real name was Donate d’Augnolo, was born in Monte-Asdrualdo in Urbino in July 1444. He had a strong interest in drawing and was placed under Fra Bartolommeo, known as Fra Carnavale, at a young age. Though he later gained some recognition as a painter, he quickly became focused on architecture. He studied under Scirro Scirri, an architect from his hometown, and possibly under other masters as well. Bramante then left Urbino and traveled through several towns in Lombardy, working on various projects and carefully examining all remnants of ancient art. Eventually, drawn by the reputation of the great Duomo, he made his way to Milan, where he stayed from 1476 to 1499. He seems to have left Milan for Rome around 1500, where he painted some frescoes and dedicated himself to studying the ancient buildings in the city and as far south as Naples. Around this time, Cardinal Caraffa hired him to rebuild the cloister of the Convent della Pace. Due to the speed and skill with which Bramante completed this, the cardinal introduced him to Pope Alexander VI. He began to be consulted on nearly all major architectural projects in Rome and worked on the palace of the Cancelleria for the pope. Under Julius II., Alexander’s successor, Bramante's talents finally had the opportunity to flourish. His first large project was to connect the disjointed buildings of the palace and the Belvedere. He achieved this through two long galleries or corridors that enclosed a courtyard. The design was only partially finished before the deaths of both Julius and the architect. The pope was very impatient, and so was Bramante, which led to the foundations not being adequately attended to; as a result, a large part of it had to be rebuilt soon after, and the entire structure has been altered so much that it’s almost impossible to make out the original design.

Besides executing numerous smaller works at Rome and Bologna, among which is specially mentioned by older writers a round temple in the cloister of San Pietro-a-Montorio, Bramante was called upon by Pope Julius to take the first part in one of the greatest architectural enterprises ever attempted—the rebuilding of St Peter’s. Bramante’s designs were complete, and he pushed on the work so fast that before his death he had erected the four great piers and their arches, and completed the cornice and the vaulting in of this portion. He also vaulted in the principal chapel. After his death on the 11th of March 1514, his design was much altered, in particular by Michelangelo.

Besides completing several smaller projects in Rome and Bologna, one of which older writers particularly highlight is a round temple in the cloister of San Pietro-a-Montorio, Bramante was chosen by Pope Julius to take the lead in one of the largest architectural endeavors ever attempted—the rebuilding of St. Peter’s. Bramante’s designs were finalized, and he advanced the work so quickly that before his death he had constructed the four major piers and their arches and finished the cornice and the vaulting of this section. He also completed the vaulting of the main chapel. After he died on March 11, 1514, his design was significantly altered, especially by Michelangelo.

See Pungileoni, Memoire intorno alla vita ed alle opere di Bramante (Rome, 1836); H. Semper, Donato Bramante (Leipzig, 1879).

See Pungileoni, Memoire intorno alla vita ed alle opere di Bramante (Rome, 1836); H. Semper, Donato Bramante (Leipzig, 1879).


BRAMPTON, HENRY HAWKINS, Baron (1817-1907), English judge, was born at Hitchin, on the 14th of September 1817. He received his education at Bedford school. The son of a solicitor, he was early familiarized with legal principles. Called to the bar at the Middle Temple in 1843, he at once joined the old home circuit, and after enjoying a lucrative practice as a junior, took silk in 1859. His name is identified with many of the famous trials of the reign of Queen Victoria. He was engaged in the Simon Bernard case (of the Orsini plot celebrity), in that of Roupell v. Waite, and in the Overend-Gurney prosecutions. The two causes célèbres, however, in which Hawkins attained his highest legal distinction were the Tichborne trials and the great will case of Sugden v. Lord St Leonards. In both of these he was victorious. In the first his masterly cross-examination of the witness Baigent was one of the great features of the trial. He did a lucrative business in references and arbitrations, and acted for the royal commissioners in the purchase of the site for the new law courts. Election petitions also formed another branch of his extensive practice. Hawkins was raised to the bench in 1876, and was assigned to the then exchequer division of the High Court, not as baron (an appellation which was being abolished by the Judicature Act), but with the title of Sir Henry Hawkins. He was a great advocate rather than a great lawyer. His searching voice, his manner, and the variety of his facial expression, gave him an enormous influence with juries, and as a cross-examiner he was seldom, if ever, surpassed. He was an excellent judge in chambers, where he displayed a clear and vigorous grasp of details and questions of fact. His knowledge of the criminal law was extensive and intimate, the reputation he gained as a “hanging” judge making him a terror to evil-doers; and the court for crown cases reserved was never considered complete without his assistance. In 1898 he retired from the bench, and was raised to the peerage under the title of Baron Brampton. He frequently took part in determining House of Lords appeals, and his judgments were distinguished by their lucidity and grasp. He held for many years the office of counsel to the Jockey Club, and as an active member of that body found relaxation from his legal and judicial duties at the leading race meetings, and was considered a capable judge of horses. In 1898 he was received into the Roman Catholic Church, and in 1903 he presented, in conjunction with Lady Brampton (his second wife), the chapel of SS. Augustine and Gregory to the Roman Catholic cathedral of Westminster, which was consecrated in that year. In 1904 he published his Reminiscences. He died in London on the 6th of October 1907, and Lady Brampton in the following year.

BRAMPTON, HENRY HAWKINS, Baron (1817-1907), an English judge, was born in Hitchin on September 14, 1817. He was educated at Bedford School. As the son of a solicitor, he became familiar with legal concepts early on. He was called to the bar at the Middle Temple in 1843 and immediately joined the old home circuit. After having a profitable practice as a junior, he became a Queen's Counsel in 1859. His name is linked to many of the notable trials during Queen Victoria's reign. He was involved in the Simon Bernard case (related to the Orsini plot), the case of Roupell v. Waite, and the Overend-Gurney prosecutions. However, the two highly publicized cases where Hawkins achieved his greatest legal acclaim were the Tichborne trials and the major will case of Sugden v. Lord St Leonards. He won both of these cases. In the first, his brilliant cross-examination of the witness Baigent was a standout moment of the trial. He conducted a profitable business in references and arbitrations and represented the royal commissioners in purchasing the site for the new law courts. Election petitions were also another part of his extensive practice. Hawkins was appointed to the bench in 1876 and assigned to the then exchequer division of the High Court, not as a baron (a title that was being phased out by the Judicature Act) but with the title of Sir Henry Hawkins. He was more of a great advocate than a great lawyer. His commanding voice, his style, and the variety of his facial expressions gave him tremendous influence with juries, and he was rarely, if ever, outdone as a cross-examiner. He was an excellent judge in chambers, demonstrating a clear and vigorous understanding of details and factual questions. His knowledge of criminal law was vast and deep; his reputation as a “hanging” judge made him a nightmare for wrongdoers, and the court for crown cases reserved was never seen as complete without him. He retired from the bench in 1898 and was elevated to the peerage as Baron Brampton. He often participated in evaluating House of Lords appeals, and his judgments were characterized by their clarity and depth. He served for many years as counsel to the Jockey Club, and as an active member, he found relaxation from his legal and judicial responsibilities at major race events, where he was regarded as a skilled judge of horses. In 1898, he converted to Roman Catholicism, and in 1903, he and Lady Brampton (his second wife) presented the chapel of SS. Augustine and Gregory to the Roman Catholic cathedral of Westminster, which was consecrated that year. In 1904, he published his Reminiscences. He passed away in London on October 6, 1907, and Lady Brampton died the following year.


BRAMPTON, a market town in the Eskdale parliamentary division of Cumberland, England, 9 m. E.N.E. of Carlisle, on a branch of the North Eastern railway. Pop. (1901) 2494. It is picturesquely situated in a narrow valley opening upon that of the Irthing. The town has an agricultural trade, breweries, and manufactures of cotton and tweeds. The neighbourhood is rich in historical associations. Two miles N.E. of Brampton is the castle of Naworth, a fine example of a Border fortress. It was built in the reign of Edward III., by a member of the family of Dacre, who for many generations had had their stronghold here. Overlooking a deep wooded ravine, with streams to the east and west, the great quadrangular castle was naturally defended except on the south, where it was rendered secure by a double moat and drawbridge. By marriage in 1577 with Lady Elizabeth Dacre it passed into the hands of William Howard, afterwards lord warden of the Marches, the “Belted Will” of Sir Walter Scott and the Border ballads, who acquired great fame by his victories over the Scottish moss-troopers. The castle, the walls of which have many secret passages and hiding-places, is inhabited, and in its hall are numerous fine pictures, including a portrait of Charles I. by Van Dyck. Not far distant is Lanercost Priory, where in 1169 an Augustinian monastery was established. In 1311 Robert Bruce and his army were quartered here, and the priory was pillaged in 1346 by David, king of Scotland. From this time its prosperity declined, and at its dissolution under Henry VIII. it consisted only of a prior and seven canons. The Early English church has a restored nave, but retains much fine carving. The chancel is ruined, but the interesting crypt is preserved.

BRAMPTON, is a market town in the Eskdale parliamentary division of Cumberland, England, located 9 miles east-north-east of Carlisle, on a branch of the North Eastern railway. Population (1901) was 2,494. It is charmingly positioned in a narrow valley that opens to the Irthing valley. The town has agricultural trade, breweries, and produces cotton and tweeds. The area is rich in historical significance. Two miles northeast of Brampton is Naworth Castle, a great example of a Border fortress. It was built during the reign of Edward III by a member of the Dacre family, who had their stronghold here for many generations. The large quadrangular castle overlooks a deep wooded ravine, with streams to the east and west, making it naturally defended, except on the south, where it is secured by a double moat and drawbridge. In 1577, through marriage to Lady Elizabeth Dacre, it came into the hands of William Howard, later known as the lord warden of the Marches, the “Belted Will” of Sir Walter Scott and the Border ballads, who gained significant fame through his victories over the Scottish moss-troopers. The castle, which has many secret passages and hiding spots within its walls, is inhabited, and its hall features numerous fine paintings, including a portrait of Charles I by Van Dyck. Nearby is Lanercost Priory, where an Augustinian monastery was established in 1169. In 1311, Robert Bruce and his army stayed here, and the priory was looted in 1346 by David, king of Scotland. After this, its prosperity declined, and by the time of its dissolution under Henry VIII, it had only a prior and seven canons. The Early English church has a restored nave but retains much beautiful carving. The chancel is in ruins, but the interesting crypt is intact.


BRAMWELL, GEORGE WILLIAM WILSHERE BRAMWELL, Baron (1808-1892), English judge, was born in London on the 12th of June 1808, being the eldest son of George Bramwell, of the banking firm of Dorrien, Magens, Dorrien & Mello. He was educated privately, and at the age of sixteen he entered Dorriens’ bank. In 1830 he gave up this business for the law, being admitted as a student at Lincoln’s Inn in 1830, and at the Inner Temple in 1836. At first he practised as a special pleader, but was eventually called to the bar at both Inns in 1838. He soon worked his way into a good practice both in London and the home circuit, his knowledge of law and procedure being so well recognized that in 1850 he was appointed a member 419 of the Common Law Procedure Commission, which resulted in the Common Law Procedure Act of 1852. This act he drafted jointly with his friend Mr (afterwards Mr Justice) Willes, and thus began the abolition of the system of special pleading. In 1851 Lord Cranworth made Bramwell a queen’s counsel, and the Inner Temple elected him a bencher—he had ceased to be a member of Lincoln’s Inn in 1841. In 1853 he served on the royal commission to inquire into the assimilation of the mercantile laws of Scotland and England and the law of partnership, which had as its result the Companies Act of 1862. It was he who, during the sitting of this commission, suggested the addition of the word “limited” to the title of companies that sought to limit their liability, in order to prevent the obvious danger to persons trading with them in ignorance of their limitation of liability. As a queen’s counsel Bramwell enjoyed a large and steadily increasing practice, and in 1856 he was raised to the bench as a baron of the court of exchequer. In 1867, with Mr Justice Blackburn and Sir John Coleridge, he was made a member of the judicature commission. In 1871 he was one of the three judges who refused the seat on the judicial committee of the privy council to which Sir Robert Collier, in evasion of the spirit of the act creating the appointment, was appointed; and in 1876 he was raised to the court of appeal, where he sat till the autumn of 1881. As a puisne judge he had been conspicuous as a sound lawyer, with a strong logical mind unfettered by technicalities, but endowed with considerable respect for the common law. His rulings were always clear and decisive, while the same quality marked his dealings with fact, and, coupled with a straightforward, unpretentious manner, gave him great influence with juries. In the court of appeal he was perhaps not so entirely in his element as at nisi prius, but the same combination of sound law, strong common sense and clear expression characterized his judgments. His decisions during the three stages of his practical career are too numerous to be referred to particularly, although Ryder v. Wombwell (L. R. 3 Ex. 95); R. v. Bradshaw (14 Cox C. C. 84); Household Fire Insurance Company v. Grant (4 Ex. Div. 216); Stonor v. Fowle (13 App. Cas. 20), The Bank of England v. Vagliano Brothers (App. Cas. 1891) are good examples. Upon his retirement, announced in the long vacation of 1881, twenty-six judges and a huge gathering of the bar entertained him at a banquet in the Inner Temple hall. In December of the same year he was raised to the peerage, taking the title Baron Bramwell of Hever, from his home in Kent. In private life Bramwell had simple tastes and enjoyed simple pleasures. He was musical and fond of sports. He was twice married: in 1830 to Jane (d. 1836), daughter of Bruno Silva, by whom he had one daughter, and in 1861 to Martha Sinden. He died on the 9th of May 1892.

BRAMWELL, GEORGE WILLIAM WILSHERE BRAMWELL, Baron (1808-1892), an English judge, was born in London on June 12, 1808, as the eldest son of George Bramwell, from the banking firm of Dorrien, Magens, Dorrien & Mello. He was educated privately, and at sixteen he started working at Dorrien’s bank. In 1830, he left that job to pursue a career in law, becoming a student at Lincoln’s Inn in 1830 and at the Inner Temple in 1836. He initially worked as a special pleader but was eventually called to the bar at both Inns in 1838. He quickly developed a strong practice in both London and the home circuit, with his expertise in law and procedure being well recognized. In 1850, he was appointed to the Common Law Procedure Commission, which led to the Common Law Procedure Act of 1852. He co-drafted this act with his friend Mr (later Mr. Justice) Willes, marking the beginning of the end for the special pleading system. In 1851, Lord Cranworth appointed Bramwell as a queen’s counsel, and he was elected a bencher by the Inner Temple—having stopped being a member of Lincoln’s Inn in 1841. In 1853, he served on a royal commission looking into unifying the mercantile laws of Scotland and England and partnership law, which resulted in the Companies Act of 1862. He was the one who suggested adding the word “limited” to the titles of companies that wanted to limit their liability, to help prevent the risks for people trading with them without knowledge of their limitation of liability. As a queen’s counsel, Bramwell had a large and steadily growing practice. In 1856, he became a baron of the court of exchequer. In 1867, he, along with Mr. Justice Blackburn and Sir John Coleridge, was appointed to the judicature commission. In 1871, he was one of three judges who denied a position on the judicial committee of the privy council to which Sir Robert Collier was appointed, thus evading the intent of the act that created that position; and in 1876, he was elevated to the court of appeal, where he served until the fall of 1881. As a puisne judge, he was known as a solid lawyer with a strong logical mind, unbound by technicalities but respectful of common law. His rulings were always clear and decisive, and this same clarity characterized his handling of facts, which, paired with his straightforward and unpretentious manner, gave him significant influence with juries. In the court of appeal, he may not have been as comfortable as at nisi prius, but the combination of solid law, common sense, and clarity marked his judgments. The number of his decisions throughout his career is too vast to mention specifically, although Ryder v. Wombwell (L. R. 3 Ex. 95); R. v. Bradshaw (14 Cox C. C. 84); Household Fire Insurance Company v. Grant (4 Ex. Div. 216); Stonor v. Fowle (13 App. Cas. 20), and The Bank of England v. Vagliano Brothers (App. Cas. 1891) are notable examples. Upon his retirement, announced during the long vacation of 1881, twenty-six judges and a large gathering of barristers honored him with a banquet in the Inner Temple hall. In December of the same year, he was raised to the peerage, taking the title Baron Bramwell of Hever, named after his home in Kent. In his personal life, Bramwell had simple tastes and enjoyed simple pleasures. He was musical and enjoyed sports. He was married twice: first in 1830 to Jane (who died in 1836), daughter of Bruno Silva, with whom he had one daughter, and secondly in 1861 to Martha Sinden. He passed away on May 9, 1892.

His younger brother, Sir Frederick Bramwell (1818-1903), was a well-known consulting engineer and “expert witness.”

His younger brother, Sir Frederick Bramwell (1818-1903), was a prominent consulting engineer and expert witness.

At all times Lord Bramwell had been fond of controversy and controversial writing, and he wrote constant letters to The Times over the signature B. (he also signed himself at different times Bramwell, G.B. and L.L.). He joined in 1882 the Liberty and Property Defence League, and some of his writings after that date took the form of pamphlets published by that society.

At all times, Lord Bramwell enjoyed controversy and writing about controversial topics. He frequently sent letters to The Times under the name B. (He also used different signatures like Bramwell, G.B., and L.L.). In 1882, he became a member of the Liberty and Property Defence League, and some of his writings after that were published as pamphlets by that organization.


BRAN, in Celtic legend, the name of (1) the hero of the Welsh Mabinogi of Branwen, who dies in the attempt to avenge his sister’s wrongs; he is the son of Llyr (= the Irish sea-god Ler), identified with the Irish Bran mac Allait, Allait being a synonym of Ler; (2) the son of Febal, known only through the 8th-century Irish epic, The Voyage of Bran (to the world below); (3) the dog of Ossian’s Fingal. Bran also appears as a historical name, Latinized as Brennus. See Kuno Meyer and D. Nutt, The Voyage of Bran (London, 1895).

BRAN, in Celtic legend, refers to (1) the hero from the Welsh Mabinogi of Branwen, who dies while trying to avenge his sister’s wrongs; he is the son of Llyr (the Irish sea-god Ler), and is identified with the Irish Bran mac Allait, with Allait being a synonym for Ler; (2) the son of Febal, known only through the 8th-century Irish epic, The Voyage of Bran (to the world below); (3) the dog of Ossian’s Fingal. Bran also appears as a historical name, Latinized as Brennus. See Kuno Meyer and D. Nutt, The Voyage of Bran (London, 1895).


BRAN, the ground husk of wheat, oats, barley or other cereals, used for feeding cattle, packing and other purposes (see Flour). The word occurs in French bren or bran, in the dialects of other Romanic languages, and also in Celtic, cf. Breton brenn, Gaelic bran. The New English Dictionary considers these Celtic forms to be borrowed from French or English. In modern French bren means filth, refuse, and this points to some connexion with Celtic words, e.g. Irish brean, manure. If so, the original meaning would be refuse. “Bran-new,” i.e. quite new, is now the common form of “brand-new,” that which is fresh from the “brand,” the branding-iron used for marking objects, &c.

BRAN, the leftover husk of wheat, oats, barley, or other grains, used for feeding livestock, packaging, and various other uses (see Flour). The term appears in French as bren or bran, in the dialects of other Romance languages, and also in Celtic, for example, Breton brenn, Gaelic bran. The New English Dictionary suggests that these Celtic forms were borrowed from French or English. In modern French, bren means dirt or waste, which hints at a connection with Celtic words, such as Irish brean, meaning manure. If that's the case, the original meaning would be waste. “Bran-new,” which means completely new, is now the usual way of saying “brand-new,” referring to something fresh from the “brand,” the branding iron used for marking items, etc.


BRANCH (from the Fr. branche, late Lat. branca, an animal’s paw), a limb of a tree; hence any offshoot, e.g. of a river, railway, &c., of a deer’s antlers, of a family or genealogical tree, and generally a subdivision or department, as in “a branch of learning.” The phrase, to destroy “root and branch,” meaning to destroy utterly, taken originally from Malachi iv. 1, was made famous in 1641 by the so-called “Root and Branch” Bill and Petition for the abolition of episcopal government, in which petition occurred the sentence, “That the said government, with all its dependencies, roots and branches, be destroyed.” Among technical senses of the word “branch” are: the certificate of proficiency given to pilots by Trinity House; and in siege-craft a length of trench forming part of a zigzag approach.

BRANCH (from the French branche, late Latin branca, meaning an animal’s paw), refers to a limb of a tree; it also indicates any offshoot, such as of a river, railway, etc., of a deer’s antlers, of a family or genealogical tree, and generally a subdivision or department, as in “a branch of learning.” The expression to destroy “root and branch,” meaning to eliminate completely, comes originally from Malachi iv. 1 and was popularized in 1641 by the “Root and Branch” Bill and Petition aimed at abolishing episcopal government, where the petition stated, “That the said government, with all its dependencies, roots and branches, be destroyed.” Among the technical meanings of the word “branch” are: the certificate of proficiency awarded to pilots by Trinity House; and in siegecraft, a length of trench that is part of a zigzag approach.


BRANCO, or Parima, a river of northern Brazil and tributary of the Rio Negro, formed by the confluence of the Takutú, or “Upper Rio Branco,” and Uraricoera, about 3° N. lat. and 60° 28′ W. long., and flowing south by west to a junction with the Negro. It has rapids in its upper course, but the greater part of its length of 348 m. is navigable for steamers of light draught. The Takutú rises in the Roraima and Coïrrit ranges on the Guiana frontier, while the Uraricoera rises in the Serra de Parima, on the Venezuelan frontier, and has a length of 360 m. before reaching the Branco. These are white water rivers, from which the Branco (white) derives its name, and at its junction with the Negro the two differently-coloured streams flow side by side for some distance before mingling.

BRANCO, or Parima, is a river in northern Brazil that flows into the Rio Negro. It starts from the confluence of the Takutú, known as the “Upper Rio Branco,” and the Uraricoera, located about 3° N latitude and 60° 28′ W longitude, and flows south by west until it meets the Negro. The upper part of the river has rapids, but most of its 348 km length is navigable for light-draft steamers. The Takutú originates in the Roraima and Coïrrit mountain ranges along the Guiana border, while the Uraricoera begins in the Serra de Parima, near the Venezuelan border, and is 360 km long before it joins the Branco. Both are whitewater rivers, which is where the Branco (meaning "white") gets its name. At the point where it joins the Negro, the two rivers flow side by side for a while before mixing together.


BRANCOVAN, or Brancoveanu, the name of a family which has played an important part in the history of Rumania. It was of Servian origin and was connected with the family of Branko or Brankovich. Constantine Brancovan, the most eminent member of the family, was born in 1654, and became prince of Walachia in 1689. In consequence of his anti-Turkish policy of forming an alliance first with Austria and then with Russia, he was denounced to the Porte, deposed from his throne, brought under arrest to Constantinople and imprisoned (1710) in the fortress of Yedi Kuleh (Seven Towers). Here he was tortured by the Turks, who hoped thus to discover the fortune of £3,000,000, which Constantine was alleged to have amassed. He was beheaded with his four sons on the 26th of August 1714. His faithful friend Enake Vacarescu shared his fate. Constantine Brancovan became, through his tragic death, the hero of Rumanian popular ballads. His family founded and endowed the largest hospital in Walachia, the so-called Spital Brancovanescu.

BRANCOVAN or Brancoveanu, the name of a family that has played a significant role in the history of Romania. It originated from Serbia and was linked to the family of Branko or Brankovich. Constantine Brancovan, the most notable member of the family, was born in 1654 and became the prince of Walachia in 1689. Due to his anti-Turkish policy of forming an alliance first with Austria and then with Russia, he was reported to the Porte, removed from his throne, arrested and taken to Constantinople, where he was imprisoned (1710) in the fortress of Yedi Kuleh (Seven Towers). There, he was tortured by the Turks, who aimed to find out about the fortune of £3,000,000 that Constantine was rumored to have accumulated. He was executed along with his four sons on August 26, 1714. His loyal friend Enake Vacarescu met the same fate. Through his tragic death, Constantine Brancovan became the hero of Romanian folk ballads. His family established and funded the largest hospital in Walachia, known as Spital Brancovanescu.

See O.G. Lecca, Familiile Boereşti Române (Bucharest, 1899), p. 90, sqq.

See O.G. Lecca, Familiile Boereşti Române (Bucharest, 1899), p. 90, sqq.

(M. G.)

BRAND, JOHN (1744-1806), English antiquary, was born on the 19th of August 1744 at Washington, Durham, where his father was parish clerk. His early years were spent at Newcastle-on-Tyne with his uncle, a cordwainer, to whom he was apprentice in his fourteenth year. Showing promise, however, at Newcastle grammar school, friends interested themselves in him and assisted him to go to Oxford. It was not, however, until his twenty-eighth year that he matriculated at Lincoln College, but before this he had been ordained, holding in succession the curacies of Bolam, Northumberland, of St Andrew’s, Newcastle, and of Cramlington, 8 m. from the county town. He graduated in 1775 and two years later was elected fellow of the Society of Antiquaries. Having for a short time been under-usher at the Newcastle grammar school, the duke of Northumberland, a former patron, gave him in 1784 the rectory of the combined parishes of St Mary-at-Hill and St Mary Hubbard, London. Appointed secretary to the Society of Antiquaries in the same year, he was annually re-elected until his death in 1806. He was buried in the chancel of his church. His most important work is Observations on Popular Antiquities: including the whole of Mr Bourne’s “Antiquitates Vulgares,” with addenda to every chapter of that work. This was published in London in 1777, and after Brand’s death, a new edition embodying the MSS. left by him, was published by Sir Henry Ellis in 1813. Brand also published 420 a poem entitled: On Illicit Love, written among the ruins of Godstow Nunnery, near Oxford (1775, Newcastle); The History and Antiquities of Newcastle-upon-Tyne (2 vols., London, 1789), and many papers in the Archaeologia.

BRAND, JOHN (1744-1806), an English antiquarian, was born on August 19, 1744, in Washington, Durham, where his father served as parish clerk. He spent his early years in Newcastle-on-Tyne with his uncle, a shoemaker, who took him on as an apprentice at the age of fourteen. However, showing promise at Newcastle grammar school, friends took an interest in him and helped him attend Oxford. It wasn't until he was twenty-eight that he enrolled at Lincoln College, but before that, he had been ordained and held various curacies, including Bolam in Northumberland, St Andrew’s in Newcastle, and Cramlington, just 8 miles from the county town. He graduated in 1775, and two years later, he became a fellow of the Society of Antiquaries. After a brief stint as an under-usher at Newcastle grammar school, the Duke of Northumberland, a former patron, appointed him in 1784 to the rectory of the combined parishes of St Mary-at-Hill and St Mary Hubbard in London. He was named secretary to the Society of Antiquaries the same year and was re-elected every year until his death in 1806. He was buried in the chancel of his church. His most significant work is Observations on Popular Antiquities: including the whole of Mr Bourne’s “Antiquitates Vulgares,” with addenda to every chapter of that work, published in London in 1777. After Brand’s death, a new edition incorporating his manuscripts was released by Sir Henry Ellis in 1813. Brand also published 420 a poem titled: On Illicit Love, written among the ruins of Godstow Nunnery, near Oxford (1775, Newcastle); The History and Antiquities of Newcastle-upon-Tyne (2 vols., London, 1789), and numerous papers in the Archaeologia.


BRAND, SIR JOHN HENRY (1823-1888), president of the Orange Free State, was the son of Sir Christoffel Brand, speaker of the House of Assembly of the Cape Colony. He was born at Cape Town on the 6th of December 1823, and was educated at the South African College in that city. Continuing his studies at Leiden, he took the degree of D.C.L. in 1845. He was called to the English bar from the Inner Temple in 1849, and practised as an advocate in the supreme court of the Cape of Good Hope from that year until 1863. In 1858 he was appointed professor of law in the South African College. He was elected president of the Orange Free State in 1863, and subsequently re-elected for five years in 1869, 1874, 1879 and 1884. In 1864 he resisted the pressure of the Basuto on the Free State boundary, and after vainly endeavouring to induce Moshesh, the Basuto chief, to keep his people within bounds, he took up arms against them in 1865. This first war ended in the treaty of Thaba Bosigo, signed on the 3rd of April 1866; and a second war, caused by the treachery of the Basuto, ended in the treaty of Aliwal North, concluded on the 12th of February 1869. In 1871 Brand was solicited by a large party to become president of the Transvaal, and thus unite the two Dutch republics of South Africa; but as the project was hostile to Great Britain he declined to do so, and maintained his constant policy of friendship towards England, where his merits were recognized in 1882 by the honour of the G.C.M.G. He died on the 14th of July 1888. (See Orange Free State: History.)

BRAND, SIR JOHN HENRY (1823-1888), president of the Orange Free State, was the son of Sir Christoffel Brand, who was the speaker of the House of Assembly of the Cape Colony. He was born in Cape Town on December 6, 1823, and attended the South African College in that city. He continued his education at Leiden, earning his D.C.L. degree in 1845. He was called to the English bar from the Inner Temple in 1849 and practiced as an advocate in the supreme court of the Cape of Good Hope from that year until 1863. In 1858, he became a professor of law at the South African College. He was elected president of the Orange Free State in 1863 and was re-elected for five-year terms in 1869, 1874, 1879, and 1884. In 1864, he resisted pressure from the Basuto on the Free State boundary, and after unsuccessfully trying to persuade Moshesh, the Basuto chief, to keep his people within limits, he took up arms against them in 1865. This first war concluded with the treaty of Thaba Bosigo, signed on April 3, 1866; a second war, triggered by betrayal from the Basuto, ended with the treaty of Aliwal North on February 12, 1869. In 1871, Brand was approached by a large group to become president of the Transvaal, aiming to unite the two Dutch republics of South Africa, but since the plan was against British interests, he declined and continued his policy of friendship towards England, which recognized his contributions in 1882 by awarding him the honor of G.C.M.G. He passed away on July 14, 1888. (See Orange Free State: History.)


BRANDE, WILLIAM THOMAS (1788-1866), English chemist, was born in London on the 11th of January 1788. After leaving Westminster school, he was apprenticed, in 1802, to his brother, an apothecary, with the view of adopting the profession of medicine, but his bent was towards chemistry, a sound knowledge of which he acquired in his spare time. In 1812 he was appointed professor of chemistry to the Apothecaries’ Society, and delivered a course of lectures before the Board of Agriculture in place of Sir Humphry Davy, whom in the following year he succeeded in the chair of chemistry at the Royal Institution, London. His Manual of Chemistry, first published in 1819, enjoyed wide popularity, and among other works he brought out a Dictionary of Science, Literature and Art in 1842, on a new edition of which he was engaged when he died at Tunbridge Wells on the 11th of February 1866.

BRANDE, WILLIAM THOMAS (1788-1866), English chemist, was born in London on January 11, 1788. After leaving Westminster school, he became an apprentice in 1802 to his brother, who was an apothecary, with the intention of pursuing a career in medicine. However, he was more inclined towards chemistry, which he studied in his free time. In 1812, he was appointed professor of chemistry at the Apothecaries’ Society and delivered a series of lectures for the Board of Agriculture in place of Sir Humphry Davy. The following year, he succeeded Davy as the chair of chemistry at the Royal Institution in London. His Manual of Chemistry, first published in 1819, became very popular, and among other works, he published a Dictionary of Science, Literature and Art in 1842, for which he was working on a new edition when he passed away in Tunbridge Wells on February 11, 1866.


BRANDENBURG, the name of a margraviate and electorate which played an important part in German history, and afterwards grew into the kingdom of Prussia. During the early years of the Christian era, the district was inhabited by the Semnones, and afterwards by various Slavonic tribes, who were partially subdued by Charlemagne, but soon regained their independence. The history of Brandenburg begins when the German king, Henry the Fowler, defeated the Havelli, or Hevelli, and took their capital, Brennibor, from which the name Brandenburg is derived. It soon came under the rule of Gero, margrave of the Saxon east mark, who pressed the campaign against the Slavs with vigour, while Otto the Great founded bishoprics at Havelberg and Brandenburg. When Gero died in 965, his mark was divided into two parts, the northern portion, lying along both banks of the middle Elbe, being called the north or old mark, and forming the nucleus of the later margraviate of Brandenburg. After Otto the Great died, the Slavs regained much of their territory, Brandenburg fell again into their hands, and a succession of feeble margraves ruled only the district west of the Elbe, together with a small district east of that river.

BRANDENBURG, is the name of a margraviate and electorate that played a significant role in German history and later became the kingdom of Prussia. In the early years of the Christian era, the area was home to the Semnones, followed by various Slavic tribes, who were partially conquered by Charlemagne but quickly regained their independence. The history of Brandenburg starts when the German king, Henry the Fowler, defeated the Havelli, or Hevelli, and captured their capital, Brennibor, from which the name Brandenburg originates. It soon came under the leadership of Gero, margrave of the Saxon east mark, who energetically campaigned against the Slavs, while Otto the Great established bishoprics at Havelberg and Brandenburg. After Gero died in 965, his mark was split into two parts; the northern section along both banks of the middle Elbe was called the north or old mark, which became the foundation of the later margraviate of Brandenburg. Following Otto the Great's death, the Slavs reclaimed much of their land, Brandenburg again fell into their possession, and a series of weak margraves ruled only the area west of the Elbe, along with a small region east of the river.

A new era began in 1106 when Lothair, count of Supplinburg, became duke of Saxony. Aided by Albert the Bear, count of Ballenstädt, he renewed the attack on the Slavs, and in 1134 appointed Albert margrave of the north mark. Albert the Bear. The new margrave continued the work of Lothair, and about 1140 made a treaty with Pribislaus, the childless duke of Brandenburg, by which he was recognized as the duke’s heir. He took at once the title margrave of Brandenburg, but when Pribislaus died in 1150, a stubborn contest followed with Jazko, a relation of the late duke, which was terminated in 1157 in Albert’s favour. Albert was the real founder of Brandenburg. Under his rule Christianity and civilization were extended, bishoprics were restored and monasteries founded. The country was colonized with settlers from the lower Rhineland, land was brought under cultivation, forts were built, German laws and customs introduced, and gradually the woods and marshes were converted into lands of comparative fertility.

A new era started in 1106 when Lothair, count of Supplinburg, became duke of Saxony. With the help of Albert the Bear, count of Ballenstädt, he renewed the fight against the Slavs, and in 1134 appointed Albert as margrave of the northern march. Albert the Bear. The new margrave continued Lothair's efforts and around 1140 made a deal with Pribislaus, the childless duke of Brandenburg, who recognized him as his heir. He immediately took the title margrave of Brandenburg, but after Pribislaus died in 1150, a fierce struggle ensued with Jazko, a relative of the deceased duke, which ended in 1157 in Albert's favor. Albert was the real founder of Brandenburg. Under his leadership, Christianity and civilization spread, bishoprics were restored, and monasteries were established. The region was populated with settlers from the lower Rhineland, land was cultivated, forts were constructed, German laws and customs were introduced, and over time, the forests and marshes were transformed into relatively fertile land.

When Albert died in 1170, Brandenburg fell to his eldest son, Otto I. (c. 1130-1184), who compelled the duke of Pomerania to own his supremacy, and slightly increased by conquest the area of the mark. Otto’s son, Otto II., was the succeeding margrave, and having quarrelled with his powerful neighbour, Ludolf, archbishop of Magdeburg, was forced to own the archbishop’s supremacy over his allodial lands. He died in 1205, and was followed by his step-brother, Albert II. (c. 1174-1220), who assisted the emperor Otto IV. in various campaigns, but later transferred his allegiance to Otto’s rival, Frederick of Hohenstaufen, afterwards the emperor Frederick II. His sons, John I. and Otto III., ruled Brandenburg in common until the death of John in 1266, and their reign was a period of growth and prosperity. Otto III. Districts were conquered or purchased from the surrounding dukes; the marriage of Otto with Beatrice, daughter of Wenceslaus, king of Bohemia, in 1253, added upper Lusatia to Brandenburg; and the authority of the margraves was extended beyond the Oder. Many monasteries and towns were founded, among them Berlin; the work of Albert the Bear was continued, and the prosperity of Brandenburg formed a marked contrast to the disorder which prevailed elsewhere in Germany. Brandenburg appears about this time to have fallen into three divisions—the old mark lying west of the Elbe, the middle mark between the Elbe and the Oder, and the new mark, as the newly conquered lands beyond the Oder began to be called. When Otto died in 1267, the area of the mark had been almost doubled, and the margraves had attained to an influential position in the Empire. The Sachsenspiegel, written before 1235, mentions the margrave as one of the electors, by virtue of the office of chamberlain, which had probably been conferred on Albert the Bear by the German king Conrad III.

When Albert died in 1170, Brandenburg passed to his eldest son, Otto I. (c. 1130-1184), who forced the duke of Pomerania to recognize his authority and slightly expanded the territory of the mark through conquest. Otto’s son, Otto II., became the next margrave but quarreled with his powerful neighbor, Ludolf, the archbishop of Magdeburg, and was compelled to accept the archbishop’s control over his allodial lands. He died in 1205 and was succeeded by his step-brother, Albert II. (c. 1174-1220), who supported Emperor Otto IV in various campaigns but later switched his loyalty to Otto’s rival, Frederick of Hohenstaufen, who later became Emperor Frederick II. His sons, John I. and Otto III., co-ruled Brandenburg until John’s death in 1266, marking a period of growth and prosperity. Otto III. Districts were conquered or bought from neighboring dukes; Otto's marriage to Beatrice, the daughter of Wenceslaus, king of Bohemia, in 1253, added upper Lusatia to Brandenburg, and the authority of the margraves extended beyond the Oder. Many monasteries and towns were established, including Berlin; the work of Albert the Bear continued, and Brandenburg’s prosperity sharply contrasted with the chaos in other parts of Germany. Around this time, Brandenburg seems to have been divided into three sections—the old mark west of the Elbe, the middle mark between the Elbe and the Oder, and the new mark, a term for the recently conquered lands beyond the Oder. When Otto died in 1267, the territory of the mark had almost doubled, and the margraves had gained a significant position in the Empire. The Sachsenspiegel, written before 1235, mentions the margrave as one of the electors, likely due to the chamberlain position that had probably been given to Albert the Bear by the German king Conrad III.

In 1258 John and Otto had agreed upon a division of their lands, but the arrangement only took effect on Otto’s death in 1267, when John’s son, John II., received the electoral dignity, together with the southern part Otto IV. of the margraviate, which centred around Stendal, and Otto’s son, John III., the northern or Saltzwedel portion. John II.’s brother, Otto IV., who became elector in 1281, had passed his early years in struggles with the archbishop of Magdeburg, whose lands stretched like a wedge into the heart of Brandenburg. In 1280 he was wounded in the head with a dart, and as he retained there a part of the weapon for a year, he was called “Otto with the dart.” He secured the appointment of his brother Eric as archbishop of Magdeburg in 1283, and was afterwards engaged in various feuds. Songs attributed to him are found in F.H. von der Hagen’s Minnesinger. Otto was succeeded in 1309 by his nephew, Valdemar, who, assisted by other members of his family, conquered Pomerellen, which he shared with the Teutonic order in 1310, and held his own in a struggle with the kings of Poland, Sweden and Denmark and others, over the possession of Stralsund.

In 1258, John and Otto agreed to split their lands, but the arrangement didn't take effect until Otto died in 1267. At that point, John’s son, John II, gained the electoral title and the southern part of the margraviate, which was centered around Stendal, while Otto’s son, John III, got the northern or Saltzwedel portion. John II’s brother, Otto IV, who became elector in 1281, spent his early years fighting with the archbishop of Magdeburg, whose lands extended like a wedge into the heart of Brandenburg. In 1280, he was hit in the head with a dart, and since he kept part of the weapon lodged in his head for a year, he was nicknamed “Otto with the dart.” He secured the appointment of his brother Eric as archbishop of Magdeburg in 1283, and later became involved in various feuds. Songs attributed to him can be found in F.H. von der Hagen’s Minnesinger. Otto was succeeded in 1309 by his nephew, Valdemar, who, with the help of other family members, conquered Pomerellen, sharing it with the Teutonic Order in 1310, and managed to hold his ground in conflicts with the kings of Poland, Sweden, Denmark, and others over the ownership of Stralsund.

In order to pay for these wars, and to meet the expenses of a splendid court, the later margraves had sold various rights to the towns and provinces of Brandenburg, and so aided the development of local government. John III. of Saltzwedel had shared his possessions with his brothers, but in 1303 they were reunited by his nephew Hermann, who purchased lower Lusatia in the same year. Hermann’s daughter Agnes married the elector Valdemar, and on the death of her only brother, John VI., in 1317, the possessions of the Saltzwedel branch of the family passed to Valdemar, together with Landsberg and the Saxon Palatinate, which had been purchased from Albert the 421 Degenerate, landgrave of Thuringia. Valdemar thus gathered the whole of the mark under his rule, together with upper and lower Lusatia, and various outlying districts. He died childless in 1319, and was succeeded by his nephew Henry II., who died in 1320, when the Ascanian family, as the descendants of Albert the Bear were called, from the Latinized form of the name of their ancestral castle of Aschersleben, became extinct.

To finance these wars and support an extravagant court, later margraves sold off various rights from the towns and provinces of Brandenburg, which helped develop local governance. John III. of Saltzwedel had divided his estates with his brothers, but in 1303, his nephew Hermann reunited them by purchasing lower Lusatia in that same year. Hermann’s daughter Agnes married elector Valdemar. After the death of her only brother, John VI., in 1317, the estates of the Saltzwedel line passed to Valdemar, along with Landsberg and the Saxon Palatinate, which had been bought from Albert the Degenerate, landgrave of Thuringia. Valdemar thereby united the entire mark under his rule, including both upper and lower Lusatia and several surrounding regions. He died without children in 1319 and was succeeded by his nephew Henry II., who passed away in 1320, leading to the extinction of the Ascanian family, descendants of Albert the Bear, named after their ancestral castle of Aschersleben.

Brandenburg now fell into a deplorable condition, portions were seized by neighbouring princes, and the mark itself was disputed for by various claimants. In 1323 King Louis IV. took advantage of this condition to bestow Wittelsbach dynasty. the mark upon his young son, Louis, and thus Brandenburg was added to the possessions of the Wittelsbach family, although Louis did not receive the extensive lands of the Ascanian margraves. Upper and lower Lusatia, Landsberg, and the Saxon Palatinate had been inherited by female members of the family, and passed into the hands of other princes, the old mark was retained by Agnes, the widow of Valdemar, who was married again to Otto II., duke of Brunswick, and the king was forced to acknowledge these claims, and to cede districts to Mecklenburg and Bohemia. During the early years of the reign of Louis, who was called the margrave Louis IV. or V., Brandenburg was administered by Bertold, count of Henneberg, who established the authority of the Wittelsbachs in the middle mark, which, centring round Berlin, was the most important part of the margraviate. The quarrel between King Louis and Pope John XXII. was inimical to the interests of Brandenburg, which was ravaged by the Poles, torn by the strife of contending clerical factions, and alternately neglected and oppressed by the margrave. Trade and commerce were at a standstill, agriculture was neglected, the privileges and estates of the margrave passed into private hands, the nobles were virtually independent, and the towns sought to defend themselves by means of alliances. During the struggle between the families of Wittelsbach and Luxemburg, which began in 1342, there appeared in Brandenburg an old man who claimed to be the margrave Valdemar. He was gladly received by the king of Poland, and other neighbouring princes, welcomed by a large number of the people, and in 1348 invested with the margraviate by King Charles IV., who eagerly seized this opportunity to deal a blow at his enemy. This step compelled Louis to make peace with Charles, who abandoned the false Valdemar, invested Louis and his step-brothers with Brandenburg, and in return was recognized as king. Louis recovered the old mark in 1348, drove his opponent from the land, and in 1350 made a treaty with his step-brothers, Louis the younger and Otto, at Frankfort-on-Oder, by which Brandenburg was handed over to Louis the younger and Otto. Louis, who then undertook the government, made peace with his neighbours, finally defeated the false Valdemar, and was recognized by the Golden Bull of 1356 as one of the seven electors. The emperor Charles IV. took advantage of a family quarrel over the possessions of Louis the elder, who died in 1361, to obtain a promise from Louis the younger and Otto, that the margraviate should come to his own son, Wenceslaus, in case the electors died childless. Louis the younger died in 1365, and when his brother Otto, who had married a daughter of Charles IV., wished to leave Brandenburg to his own family Charles began hostilities; but in 1373 an arrangement was made, and Otto, by the treaty of Fürstenwalde, abandoned the margraviate for a sum of 500,000 gold gulden.

Brandenburg had now fallen into a terrible state; parts of it were taken over by neighboring princes, and the mark itself was contested by various claimants. In 1323, King Louis IV seized the opportunity to grant the mark to his young son, Louis, thereby adding Brandenburg to the Wittelsbach family's holdings, though Louis didn’t receive the extensive lands of the Ascanian margraves. Upper and Lower Lusatia, Landsberg, and the Saxon Palatinate had been inherited by female relatives of the family and went to other princes. Agnes, the widow of Valdemar, kept the old mark and married Otto II, duke of Brunswick, forcing the king to recognize these claims and cede areas to Mecklenburg and Bohemia. During the early years of Louis’s reign, known as margrave Louis IV or V, Brandenburg was governed by Bertold, count of Henneberg, who solidified the Wittelsbachs' authority in the central mark, which included Berlin and was the most significant part of the margraviate. The conflict between King Louis and Pope John XXII harmed Brandenburg's interests, leading to devastation by the Poles, internal strife among clergy factions, and neglect and oppression by the margrave. Trade and commerce halted, agriculture suffered, the margrave's privileges and lands fell into private hands, the nobles became effectively independent, and towns united to protect themselves through alliances. During the struggle between the Wittelsbach and Luxemburg families that began in 1342, an old man claiming to be margrave Valdemar appeared in Brandenburg. He was welcomed by the king of Poland and other nearby princes, garnering support from many locals, and in 1348 was invested with the margraviate by King Charles IV, who saw this as an opportunity to strike at his enemy. This forced Louis to negotiate peace with Charles, who abandoned the false Valdemar and recognized Louis and his step-brothers as the rightful holders of Brandenburg. In 1348, Louis regained control of the old mark, expelled his rival, and in 1350 made a treaty with his step-brothers, Louis the younger and Otto, in Frankfort-on-Oder, transferring Brandenburg to Louis the younger and Otto. Louis, who then took on governance, established peace with his neighbors, ultimately defeated the false Valdemar, and was acknowledged by the Golden Bull of 1356 as one of the seven electors. The emperor Charles IV took advantage of a family dispute over the possessions of Louis the elder, who died in 1361, to secure an agreement from Louis the younger and Otto that the margraviate would pass to his son, Wenceslaus, if the electors died childless. Louis the younger died in 1365, and when his brother Otto, who had married a daughter of Charles IV, intended to keep Brandenburg for his own family, Charles initiated hostilities; however, in 1373, they reached an agreement, and Otto relinquished the margraviate in exchange for 500,000 gold gulden.

Under the Wittelsbach rule, the estates of the various provinces of Brandenburg had obtained the right to coin money, to build fortresses, to execute justice, and to form alliances with foreign states. Charles invested Wenceslaus Imperial control. with the margraviate in 1373, but undertook its administration himself, and passed much of his time at a castle which he built at Tangermünde. He diminished the burden of taxation, suppressed the violence of the nobles, improved navigation on the Elbe and Oder, and encouraged commerce by alliances with the Hanse towns, and in other ways. He caused a Landbook to be drawn up in 1375, in which are recorded all the castles, towns and villages of the land with their estates and incomes. When Charles died in 1378, and Wenceslaus became German and Bohemian king, Brandenburg passed to the new king’s half-brother Sigismund, then a minor, and a period of disorder ensued. Soon after Sigismund came of age, he pledged a part of Brandenburg to his cousin Jobst, margrave of Moravia, to whom in 1388 he handed over the remainder of the electorate in return for a large sum of money, and as the money was not repaid, Jobst obtained the investiture in 1397 from King Wenceslaus. Sigismund had also obtained the new mark on the death of his brother John in 1396, but sold this in 1402 to the Teutonic order. Jobst paid very little attention to Brandenburg, and the period was used by many of the noble families to enrich themselves at the expense of the poorer and weaker towns, to plunder traders, and to carry on feuds with neighbouring princes. When in 1410 Sigismund and Jobst were rivals for the German throne, Sigismund, anxious to obtain another vote in the electoral college, declared the bargain with Jobst void, and empowered Frederick VI. of Hohenzollern, burgrave of Nuremberg, to exercise the Brandenburg vote at the election. (See Frederick I., Elector of Brandenburg.) In 1411 Jobst died and Brandenburg reverted to Sigismund, who appointed Frederick as his representative to govern the margraviate, and a further step was taken when, on the 30th of April 1415, the king invested Frederick of Hohenzollern and his heirs with Brandenburg, together with the electoral privilege and the office of chamberlain, in return for a payment of 400,000 gold gulden, but the formal ceremony of investiture was delayed until the 18th of April 1417, when it took place at Constance.

Under Wittelsbach rule, the estates of the different provinces of Brandenburg gained the right to mint money, build fortresses, administer justice, and form alliances with foreign nations. In 1373, Charles appointed Wenceslaus Empire control. as margrave but took over its administration himself, spending much of his time at a castle he built in Tangermünde. He reduced taxes, curbed noble violence, improved navigation on the Elbe and Oder rivers, and boosted trade through alliances with Hanseatic towns and other initiatives. He had a Landbook created in 1375, which listed all the castles, towns, and villages in the land along with their estates and incomes. When Charles died in 1378 and Wenceslaus became the King of Germany and Bohemia, Brandenburg was passed to the new king's half-brother Sigismund, who was still a minor, leading to a time of chaos. Shortly after Sigismund came of age, he pledged part of Brandenburg to his cousin Jobst, margrave of Moravia, and in 1388 he handed over the rest of the electorate for a large sum of money, which went unpaid, allowing Jobst to officially take control in 1397 from King Wenceslaus. Sigismund also received the new mark after his brother John died in 1396, but sold it in 1402 to the Teutonic Order. Jobst paid little attention to Brandenburg during this time, and many noble families took advantage of it to enrich themselves at the expense of the poorer towns, rob traders, and engage in feuds with neighboring princes. In 1410, when Sigismund and Jobst competed for the German throne, Sigismund, wanting another vote in the electoral college, declared the agreement with Jobst null and allowed Frederick VI. of Hohenzollern, burgrave of Nuremberg, to vote for Brandenburg in the election. (See Frederick I., Elector of Brandenburg.) In 1411, Jobst died, and Brandenburg returned to Sigismund, who appointed Frederick to govern the margraviate. A further step was taken on April 30, 1415, when the king invested Frederick of Hohenzollern and his heirs with Brandenburg, along with the electoral privilege and the role of chamberlain, in exchange for 400,000 gold gulden, but the formal investiture ceremony was postponed until April 18, 1417, when it took place in Constance.

During the century which preceded the advent of the Hohenzollerns in Brandenburg its internal condition had become gradually worse and worse, and had been accompanied by a considerable loss of territory. The central power Condition before the Hohenzollern rule. had become weakened and the central organization relaxed, while the electorate had lost most of the advantages which formerly distinguished it from other German fiefs. Under the rule of the earliest margraves, it was the official side of their position that was prominent, and it was not forgotten that they were technically only the representatives of the emperor. But in the 13th century this feeling began to disappear, and Brandenburg enjoyed an independence and carried out an independent policy in a way that was not paralleled by any other German state. The emperor was still suzerain indeed, but his relations with the mark were so insignificant that they exercised practically no influence on its development; and so the power of the Ascanian margraves was virtually unlimited. This independence was enhanced by the fact that few great nobles had followed Albert the Bear in his work of conquest, and that consequently there were few large lordships with their crowd of dependents. The towns, the village communities and the knights held their lands and derived their rights directly from the margraves. The towns and villages had generally been laid out by contractors or locatores, men not necessarily of noble birth, who were installed as hereditary chief magistrates of the communities, and received numerous encouragements to reclaim waste lands. This mode of colonization was especially favourable to the peasantry, who seem in Brandenburg to have retained the disposal of their persons and property at a time when villenage or serfdom was the ordinary status of their class elsewhere. The dues paid by these contractors in return for the concessions formed the main source of the revenue of the margraves. Gradually, however, the expenses of warfare, liberal donations to the clergy, and the maintenance of numerous and expensive households, compelled them to pledge these dues for sums of ready money. This proceeding gave the barons and knights an opportunity to buy out the village magistrates and to replace them with nominees of their own. Thus the condition of the peasants grew worse, and their freedom was practically destroyed when the emperor Louis IV. recognized the jurisdiction of the nobles over their estates. Henceforth the power of the nobles steadily increased at the expense of the peasants, who soon sank into servitude. Instead of communicating 422 directly with the margrave through his burgraves and bailiffs, or vogts, the village communities came to be represented by the nobles who had obtained possession of their lands. Many of the towns were forced into the same position. Others were able to maintain their independence, and to make use of the pecuniary needs of the margraves to become practically municipal republics. Their strength, however, was perhaps more usefully shown in their ability to resist the nobles, a proceeding which saved industry and commerce from extinction at a time of unbridled lawlessness. In the pecuniary embarrassments of the margraves also originated the power of the Stände, or estates, consisting of the nobles, the clergy and the towns. The first recorded instance of the Stände co-operating with the rulers occurred in 1170; but it was not till 1280 that the margrave solemnly bound himself not to raise a bede or special voluntary contribution without the consent of the estates. In 1355 the Stände secured the appointment of a permanent councillor, without whose concurrence the decrees of the margraves were invalid. In the century which followed the extinction of the Ascanian house, liberty degenerated into licence, and the country was given over to anarchy. Only the most powerful towns were able to maintain their independence; others, together with the clergy, regularly paid blackmail to the neighbouring nobles. Under these conditions it is no wonder that the electorate not only completely lost its political importance, but also suffered a considerable diminution of territory. Upper and lower Lusatia, the new mark of Brandenburg, and other outlying districts had been shorn away, and the electorate now consisted of the old mark, the middle mark with Priegnitz, Uckermark and Sternberg, a total area of not more than 10,000 sq.m.

During the century leading up to the Hohenzollerns' arrival in Brandenburg, the internal situation had gradually deteriorated, and the region lost significant territory. The central authority weakened, and the organizational structure became relaxed, while the electorate lost many of the advantages that once set it apart from other German territories. In the time of the earliest margraves, their official status was prominent, and it was understood that they were essentially just the emperor’s representatives. However, by the 13th century, this perception started to fade, and Brandenburg experienced a level of independence and pursued an independent policy that was unmatched by any other German state. Although the emperor still held nominal authority, his influence over Brandenburg was minimal, leading to virtually unlimited power for the Ascanian margraves. This independence was further bolstered by the fact that few noble families followed Albert the Bear in his conquests, resulting in a lack of large lordships and their multitude of dependents. Instead, towns, village communities, and knights held their lands and derived their rights directly from the margraves. Towns and villages were generally developed by contractors or *locatores*, who were not necessarily noble and became hereditary leaders of their communities, often encouraged to reclaim wasteland. This method of settlement was particularly beneficial for peasants, who in Brandenburg seemed to retain control over their personal and property rights when, elsewhere, most peasants were subjected to serfdom. The fees paid by these contractors for their concessions became the main source of income for the margraves. Over time, however, the costs of warfare, generous donations to the clergy, and the maintenance of lavish households forced them to pledge these fees for cash. This situation allowed barons and knights to buy out village leaders and replace them with their own appointees. Consequently, the conditions for peasants worsened, and their freedoms were effectively obliterated once Emperor Louis IV recognized noble jurisdiction over their lands. From then on, noble power steadily increased at the expense of the peasants, who soon fell into servitude. Instead of communicating directly with the margrave through his local leaders and bailiffs or *vogts*, village communities were represented by the nobles who controlled their lands. Many towns found themselves in the same situation, while others managed to hold on to their independence and leveraged the financial needs of the margraves to become nearly municipal republics. Their strength was particularly evident in their ability to resist the nobles, which saved industries and commerce from fading during a time of rampant lawlessness. The margraves' financial troubles also led to the rise of the *Stände*, or estates, made up of nobles, clergy, and towns. The first recorded instance of the *Stände* collaborating with rulers was in 1170; however, it wasn’t until 1280 that the margrave formally agreed not to levy a *bede* or special voluntary tax without the *Stände’s* consent. In 1355, the *Stände* managed to secure the appointment of a permanent councillor, whose agreement was necessary for the margraves' decrees to be valid. In the century after the Ascanian house ended, liberty turned into license, and the country descended into anarchy. Only the strongest towns managed to maintain their independence; others, together with the clergy, routinely paid off neighboring nobles. Under these circumstances, it’s hardly surprising that the electorate not only lost all political significance but also suffered a significant reduction in territory. Areas like Upper and Lower Lusatia, the new mark of Brandenburg, and other distant territories were stripped away, leaving the electorate with just the old mark, the middle mark along with Priegnitz, Uckermark, and Sternberg, covering an area of no more than 10,000 square miles.

Such was the condition and extent of Brandenburg in 1411 when Frederick of Hohenzollern became the representative of King Sigismund therein. Entering the electorate with a strong force in June 1412, his authority was quickly Frederick of Hohenzollern, 1412. recognized in the middle mark, but the nobles of the old mark and of Priegnitz refused to follow this example. The two succeeding years were skilfully used by Frederick to make peace with the neighbouring princes, and having thus isolated his domestic enemies, he turned his arms against them early in 1414. Their strongholds were stormed, and in a few weeks their leaders were either prisoners or fugitives. A general peace was then declared at Tangermünde which enabled Frederick to leave the mark to the rule of his wife, Elizabeth, and to turn his attention elsewhere. Returning to Brandenburg as elector in 1416, the last flickers of the insurrection were extinguished; and when Frederick was invested at Constance in April 1417 his authority over the mark was undisputed. His next difficulty was with Pomerania, which had been nominally under the suzerainty of Brandenburg since 1181. The revival of this claim by the elector provoked an invasion of the mark by an army of Pomeranians with their allies in 1420, when Frederick inflicted a severe defeat upon them at Angermünde; but in 1424 a temporary coolness between the elector and the emperor Sigismund led to a renewal of the attack which Frederick was unable to repulse. This reverse, together with the pressure of other business, induced him to leave Brandenburg in January 1426, after handing over its government to his eldest son, John. John, called the “Alchemist,” who was born in 1403, had been disappointed in his hope of obtaining the vacant electoral duchy of Saxe-Wittenberg in 1423. Lacking the diplomatic and military qualities of his father, his difficulties were augmented by the poverty of the country, and the evils which Frederick had suppressed quickly returned. The feeling of security vanished, the towns banded themselves together for defensive purposes, the rights of the margrave were again pledged to provide money, and in 1432 the land was ravaged by the Hussites. John never attained to the electoral dignity; for, in 1437, his father in arranging a division of his territories decided that Brandenburg should pass to his second and fourth sons, both of whom were named Frederick. The elder of the two took up the government at once, whereupon John left the mark for South Germany, where he remained until his death in 1464.

This was the state of Brandenburg in 1411 when Frederick of Hohenzollern became the representative of King Sigismund there. Entering the electorate with a strong force in June 1412, his authority was quickly recognized in the middle mark, but the nobles of the old mark and Priegnitz refused to follow his lead. Frederick skillfully used the next two years to make peace with neighboring princes, isolating his domestic enemies, and he turned his strength against them early in 1414. Their strongholds were attacked, and within a few weeks, their leaders were either captured or fled. A general peace was declared at Tangermünde, allowing Frederick to leave the mark under the rule of his wife, Elizabeth, and focus on other matters. Returning to Brandenburg as elector in 1416, he extinguished the last sparks of the uprising; and when he was invested at Constance in April 1417, his authority over the mark was unquestioned. His next challenge was with Pomerania, which had been nominally under Brandenburg's suzerainty since 1181. The elector's revival of this claim led to an invasion of the mark by an army of Pomeranians and their allies in 1420, when Frederick dealt them a serious defeat at Angermünde; however, in 1424, a temporary rift between the elector and Emperor Sigismund prompted a renewed attack that Frederick could not fend off. This setback, along with other pressures, led him to leave Brandenburg in January 1426, after transferring its governance to his eldest son, John. John, nicknamed the “Alchemist,” who was born in 1403, had been disappointed in his hopes of acquiring the vacant electoral duchy of Saxe-Wittenberg in 1423. Lacking his father's diplomatic and military skills, his difficulties were compounded by the country’s poverty, and the problems Frederick had suppressed quickly resurfaced. The sense of security vanished, towns united for defense, the margrave's rights were again pledged for funds, and in 1432, the land was ravaged by the Hussites. John never achieved the electoral rank; in 1437, when his father arranged a division of his territories, he decided that Brandenburg would go to his second and fourth sons, both named Frederick. The elder of the two took up the government immediately, prompting John to leave the mark for southern Germany, where he remained until his death in 1464.

Frederick II., who became elector on his father’s death in September 1440, was born on the 19th of November 1413, and earned the surname of “Iron” through his sternness to his country’s enemies. He had little difficulty Frederick II. in repressing the turbulence of the nobles which had been quickened into life during the regency of his brother, but found it less easy to deal with the towns. Three strong leagues had been formed among them about 1431, and the spirit of municipal independence was most prominently represented by the neighbouring and allied towns of Berlin and Cöln. In his conflict with the towns over his refusal to ratify all their privileges the elector’s task was lightened by a quarrel between the magistrates and the burghers of Berlin, which he was called in to decide in 1442. He deposed the governing oligarchy, changed the constitution of the town, forbade all alliances and laid the foundations of a castle. The inhabitants soon chafed under these restrictions. A revolt broke out in 1447, but the power of the elector overawed the people, who submitted their case to the estates, with the result that the arrangement of 1442 was re-established. In 1447 Frederick was compelled to cede the old mark and Priegnitz to his younger brother, Frederick, under whose feeble rule they quickly fell into disorder. In 1463, however, when the younger Frederick died childless, the elector united them again with his own possessions and took measures to suppress the prevailing anarchy. In his dealings with neighbouring rulers Frederick pursued a peaceful and conciliatory policy. In 1442 he obtained some small additions to his territory, and the right of succession to the duchy of Mecklenburg in case the ducal family should die out. In 1445 an old feud with the archbishop of Magdeburg was settled, and in 1457 a treaty of mutual succession was made with the houses of Saxony and Hesse. Cottbus and Peitz in Lusatia were acquired, and retained after a quarrel with George Podiebrad, king of Bohemia, and the new mark of Brandenburg was purchased from the Teutonic order in 1454. An attempt, however, to secure the duchy of Pomerania-Stettin failed, and the concluding years of this reign were troubled by warfare with the Pomeranians.

Frederick II, who became elector after his father's death in September 1440, was born on November 19, 1413, and earned the nickname “Iron” due to his strictness towards his country’s enemies. He had little trouble suppressing the unrest among the nobles that had flared up during his brother's regency, but found it harder to manage the towns. Three strong alliances had formed among them around 1431, and the desire for municipal independence was most prominently shown by the nearby allied towns of Berlin and Cöln. In his struggle with the towns over his refusal to confirm all their privileges, the elector benefited from a conflict between the magistrates and the citizens of Berlin, which he was brought in to resolve in 1442. He removed the ruling oligarchy, changed the town's constitution, banned all alliances, and laid the foundations for a castle. The residents soon became frustrated with these restrictions. A revolt broke out in 1447, but the elector's power intimidated the people, who took their case to the estates, resulting in the restoration of the 1442 arrangements. In 1447, Frederick had to give the old mark and Priegnitz to his younger brother, Frederick, whose weak leadership quickly led to disorder. However, in 1463, when the younger Frederick died without children, the elector reunited those lands with his own and took steps to restore order. In his interactions with neighboring rulers, Frederick adopted a peaceful and diplomatic approach. In 1442, he gained some minor territorial expansions and the right to succeed to the duchy of Mecklenburg if the ducal family became extinct. In 1445, he resolved an old feud with the archbishop of Magdeburg, and in 1457, he signed a mutual succession treaty with the houses of Saxony and Hesse. He acquired Cottbus and Peitz in Lusatia and retained them after a dispute with George Podiebrad, the king of Bohemia, and in 1454, he purchased the new mark of Brandenburg from the Teutonic order. However, an attempt to secure the duchy of Pomerania-Stettin failed, and the final years of his reign were marked by conflicts with the Pomeranians.

The general success of Frederick’s rule was secured by the sedulous care with which he confined himself to the work of government. He is said to have refused the thrones of Poland and Bohemia; and although he made pilgrimages to the Holy Land and to Rome, his interest in ecclesiastical questions was mainly directed towards quickening the religious life of his people. He obtained important concessions from Pope Nicholas V. with regard to the appointment of bishops and other ecclesiastical matters in 1447, and in general maintained cordial relations with the papacy. About 1467 his only son, John, died, and increasing infirmity led him to contemplate abdication. An arrangement was made with his brother, Albert Achilles, to whom early in 1470 the mark was handed over, and Frederick retired to Plassenburg where he died on the 10th of February 1471.

The overall success of Frederick’s reign was achieved through his dedicated focus on governance. It’s said that he turned down offers for the thrones of Poland and Bohemia; and while he went on pilgrimages to the Holy Land and Rome, his main interest in church matters was to inspire the religious life of his people. In 1447, he secured significant concessions from Pope Nicholas V regarding the appointment of bishops and other church affairs, and generally maintained good relations with the papacy. Around 1467, his only son, John, passed away, and his declining health led him to consider stepping down. He made an arrangement with his brother, Albert Achilles, to whom he officially transferred power in early 1470, and Frederick retired to Plassenburg, where he died on February 10, 1471.

Albert appeared in Brandenburg early in the same year, and after receiving the homage of his people took up the struggle with the Pomeranians, which he soon brought to a satisfactory conclusion; for in May 1472 he not only Albert Achilles. obtained the cession of several districts, but was recognized as the suzerain of Pomerania and as its future ruler. The expenses of this war led to a quarrel with the estates. A subsidy was granted which the elector did not regard as adequate, and by a dexterous use of his power he established his right to take an excise on beer. Albert’s most important contribution to the history of Brandenburg was the issue on the 24th of February 1473 of the Dispositio Achillea. By this instrument the elector decreed that the electoral mark should pass in its entirety to his eldest son, an establishment of primogeniture which had considerable influence on the future development of the country. He then entrusted the government to his eldest son, John, and left Brandenburg. Handicapped by poverty, John had to face attacks from two quarters. The Pomeranians, inspired by the declaration of the emperor Frederick III. that their land was a direct fief of the Empire, and aided by Matthias Corvinus, king of Hungary, took up arms; and a quarrel broke 423 out with John, duke of Sagan, over the possessions of John’s brother-in-law, Henry XI., duke of Glogau. To deal with these difficulties Albert returned to Brandenburg in 1478, and during his stay drove back the Pomeranians, and added Crossen and other parts of duke Henry’s possessions to the electorate. Again left in charge of the country, John beat back a fresh attack made by John of Sagan in 1482; and he became elector on his father’s death in March 1486. He added the county of Zossen to his possessions in 1490, and in 1493 made a fresh treaty with the duke of Pomerania. Although he brought a certain degree of order into the finances, his poverty and the constant inroads of external enemies prevented him from seriously improving the condition of the country. John, who was called “Cicero,” either on account of his eloquence, or of his knowledge of Latin, was interested in learning, welcomed Italian scholars to the electorate, and strove to improve the education of his people. He died at Arneburg on the 9th of January 1499, and was succeeded by his son Joachim I.

Albert appeared in Brandenburg early that year, and after receiving the loyalty of his people, he engaged in a conflict with the Pomeranians, which he quickly resolved satisfactorily. In May 1472, he not only secured the transfer of several districts but was also recognized as the suzerain of Pomerania and its future ruler. The costs of this war led to a dispute with the estates. A subsidy was granted that the elector didn't find sufficient, and by cleverly using his authority, he established his right to impose an excise tax on beer. Albert’s most significant contribution to the history of Brandenburg was the issuance of the Dispositio Achillea on February 24, 1473. Through this instrument, the elector declared that the electoral mark would pass entirely to his eldest son, establishing primogeniture, which had a significant impact on the future development of the region. He then entrusted the governance to his eldest son, John, and left Brandenburg. Struggling with poverty, John faced attacks from two fronts. The Pomeranians, motivated by the emperor Frederick III.'s declaration that their land was a direct fief of the Empire and supported by Matthias Corvinus, the king of Hungary, took up arms. Additionally, a conflict arose with John, duke of Sagan, over the holdings of John’s brother-in-law, Henry XI., duke of Glogau. To address these challenges, Albert returned to Brandenburg in 1478, and during his time there, he repelled the Pomeranians and added Crossen and other parts of duke Henry’s territories to the electorate. Once again left in charge, John resisted a renewed attack from John of Sagan in 1482 and became elector upon his father's death in March 1486. He added the county of Zossen to his holdings in 1490 and made a new treaty with the duke of Pomerania in 1493. Although he brought some order to the finances, his poverty and the relentless assaults from external enemies hindered any significant improvement in the country’s condition. John, who was referred to as “Cicero,” either because of his eloquence or his knowledge of Latin, was interested in education, welcomed Italian scholars to the electorate, and sought to enhance the education of his people. He passed away in Arneburg on January 9, 1499, and was succeeded by his son Joachim I.

When Joachim undertook the government of Brandenburg he had to deal with an amount of disorder almost as great as that which had taxed the energies of Frederick I. a century before. Highway robbery was general, the Joachim. lives and property of traders were in continual jeopardy, and the machinery for the enforcement of the laws was almost at a standstill. About 1504 an attack of unusual ferocity on some Frankfort traders aroused the elector’s wrath, and during the next few years the execution of many lawbreakers and other stern measures restored some degree of order. In this and in other ways Joachim proved himself a sincere friend to the towns and a protector of industry. Following the economic tendencies of the time he issued sumptuary laws and encouraged manufactures; while to suppress the rivalry among the towns he established an order of precedence for them. Equally important was his work in improving the administration of justice, and in this direction he was aided by scholars from the university which he had founded at Frankfort-on-Oder in 1506. He gave a new organization to the highest court of justice, the Kammergericht, secured for himself an important voice in the choice of its members, and ordered that the local law should be supplemented by the law of Rome. He did not largely increase the area of Brandenburg, but in 1524 he acquired the county of Ruppin, and in 1529 he made a treaty at Grimnitz with George and Barnim XI., dukes of Pomerania, by which he surrendered the vexatious claim to suzerainty in return for a fresh promise of the succession in case the ducal family should become extinct. Joachim’s attitude towards the teaching of Martin Luther which had already won many adherents in the electorate, was one of unrelenting hostility. The Jews also felt the weight of his displeasure, and were banished in 1510.

When Joachim took on the leadership of Brandenburg, he faced a level of chaos that was almost as severe as what Frederick I. had encountered a century earlier. Highway robbery was widespread, the lives and property of merchants were constantly at risk, and the system for enforcing the laws was nearly inactive. Around 1504, a particularly brutal attack on some traders from Frankfort ignited the elector's anger, and in the following years, the execution of many criminals and other strict measures brought back some order. In this and other ways, Joachim showed himself to be a genuine supporter of the towns and a protector of industry. Keeping in line with the economic trends of the time, he issued laws on spending and encouraged manufacturing; to reduce competition among the towns, he created a hierarchy for them. Equally significant was his effort to improve the justice system, aided by scholars from the university he established at Frankfort-on-Oder in 1506. He reorganized the highest court of justice, the Kammergericht, secured himself an influential role in selecting its members, and mandated that local laws be supplemented by Roman law. He didn't greatly expand the territory of Brandenburg, but in 1524 he acquired the county of Ruppin, and in 1529, he made a treaty at Grimnitz with George and Barnim XI., dukes of Pomerania, where he gave up a troublesome claim to overlordship in exchange for a new promise of succession if the ducal family was to die out. Joachim was fiercely opposed to the teachings of Martin Luther, which had already gained many followers in the electorate. The Jewish community also felt his wrath and were expelled in 1510.

Ignoring the Dispositio Achillea, the elector bequeathed Brandenburg to his two sons. When he died in July 1535 the elder, Joachim II., became elector, and obtained the old and middle marks, while the younger, John, received Joachim II. the new mark. John went definitely over to the side of the Lutherans in 1538, while Joachim allowed the reformed doctrines free entrance into his dominions in 1539. The elector, however, unlike his brother, did not break with the forms of the Church of Rome, but established an ecclesiastical organization independent of the pope, and took up a position similar to that of King Henry VIII. in England. Many of the monasteries were suppressed, a consistory was set up to take over the functions of the bishops and to act as the highest ecclesiastical court of the country. In 1541 the new ecclesiastical system was confirmed by the emperor Charles V. With regard to this policy the elector was probably influenced by considerations of greed. The bishoprics of Brandenburg, Havelberg and Lebus were secularized; their administration was entrusted to members of the elector’s family; and their revenues formed a welcome addition to his impoverished exchequer. Nor did Joachim neglect other opportunities for adding to his wealth and possessions. In 1537 he had concluded a treaty with Frederick III., duke of Liegnitz, which guaranteed to the Hohenzollerns the succession to the Silesian duchies of Liegnitz, Brieg and Wohlau in the event of the ducal family becoming extinct; this arrangement is important as the basis of the claim made by Frederick the Great on Silesia in 1740. The treaty was declared invalid by the German king, Ferdinand I.; but the elector insisted on its legality, and in 1545 strengthened his position by arranging a double marriage between members of his own family and that of Duke Frederick. Of more immediate consequence was an arrangement made in 1569 with the representatives of Joachim’s kinsman, Albert Frederick, duke of Prussia, after which the elector obtained the joint investiture of the duchy of Prussia from Sigismund II., king of Poland, and was assured of the succession if the duke’s family became extinct. Joachim’s luxurious habits, his partiality for adventurers, and his delight in building, led him to incur such a heavy expenditure that after pledging many of his lands and rights he was compelled in 1540 to appeal for help to the estates. Taking advantage of his difficulties, the estates voted him a sum of money as the price of valuable concessions, the most important of which was that the elector should make no alliance without their consent. Fresh liabilities were soon incurred, and in spite of frequent contributions from the estates Joachim left at his death in January 1571 a heavy burden of debt to his son and successor, John George.

Ignoring the Dispositio Achillea, the elector left Brandenburg to his two sons. When he passed away in July 1535, the elder, Joachim II, became elector and took control of the old and middle marks, while the younger, John, was given the new mark. John fully sided with the Lutherans in 1538, while Joachim allowed reformed doctrines to enter his territories freely in 1539. However, unlike his brother, the elector didn't break from the Roman Church's forms but created an ecclesiastical organization that was independent of the pope, positioning himself similarly to King Henry VIII in England. Many monasteries were shut down, a consistory was established to take over the bishops' roles, and it acted as the highest ecclesiastical court in the country. In 1541, the new ecclesiastical system was approved by Emperor Charles V. The elector's policy was likely driven by greed. The bishoprics of Brandenburg, Havelberg, and Lebus were secularized; their administration went to members of the elector’s family; and their revenues provided a much-needed boost to his depleted finances. Joachim also sought other ways to increase his wealth and possessions. In 1537, he signed a treaty with Frederick III, duke of Liegnitz, which guaranteed the Hohenzollerns succession to the Silesian duchies of Liegnitz, Brieg, and Wohlau if the ducal family became extinct; this agreement later served as the basis for Frederick the Great's claim on Silesia in 1740. The German king, Ferdinand I, declared the treaty invalid; however, the elector stood firm on its legality and, in 1545, strengthened his position by arranging a double marriage between members of his family and Duke Frederick’s family. A more immediate concern was an agreement made in 1569 with representatives of Joachim’s cousin, Albert Frederick, duke of Prussia, after which the elector gained joint investiture of the duchy of Prussia from Sigismund II, king of Poland, and was guaranteed succession if the duke's family became extinct. Joachim's extravagant lifestyle, his fondness for adventurers, and his passion for building led him to such extensive spending that, after mortgaging many of his lands and rights, he had to seek help from the estates in 1540. Taking advantage of his situation, the estates granted him a sum of money in exchange for important concessions, the most significant being that the elector could make no alliances without their approval. New debts quickly piled up, and despite ongoing financial support from the estates, Joachim left a substantial debt for his son and successor, John George, when he died in January 1571.

The elector’s death was followed ten days later by that of his brother, John, and as John left no sons the whole of Brandenburg, together with the districts of Beeskow and Storkow which had been added by purchase to the new mark, John George. were united under the rule of his nephew, John George. Born on the 11th of September 1525 this prince had served in the field under Charles V., and, disliking his father’s policy and associates, had absented himself from Berlin, and mainly confined his attention to administering the secularized bishopric of Brandenburg which he had obtained in 1560. When he became elector he hastened to put his ideas into practice. His father’s favourites were exiled; foreigners were ousted from public positions and their places taken by natives; and important economies were effected, which earned for John George the surname of Oekonom, or steward. To lighten the heavy burden of debt left by Joachim the elector proposed a tax on wheat and other cereals. Some opposition was shown, but eventually the estates of both divisions of the mark assented; only, however at the price of concessions to the nobles, predominant in the diet, which thrust the peasantry into servitude. Thus the rule of John George was popular with the nobles, and to some extent with the towns. Protestant refugees from France and the Netherlands were encouraged to settle in Brandenburg, and a period of peace was beneficial to a land, the condition of which was still much inferior to that of other parts of Germany. In religion the elector was a follower of Luther, whose doctrines were prevalent among his people. He had accepted the Formula Concordiae, a Lutheran document promulgated in June 1580, and sought to prevent any departure from its tenets. His dislike of Calvinism, or his antipathy to external complications, however, prevented him from taking any serious steps to defend Protestantism from the attacks of the counter-reformation. He did indeed join the league of Torgau, which voted assistance to Henry IV. of France in 1591; but he refused to aid the United Provinces, or even to give assistance to his eldest son, Joachim Frederick, administrator of the archbishopric of Magdeburg, whose claim to sit and vote in the imperial diet was contested, or to his grandson, John George, whose election to the bishopric of Strassburg was opposed by a Roman Catholic minority in the chapter. This indifference to the welfare of the Protestants added to the estrangement between the elector and his eldest son, which was further accentuated when John George, ignoring the Dispositio Achillea, bequeathed the new mark to one of his younger sons. He died on the 8th of January 1598.

The elector’s death was followed ten days later by his brother John’s passing. Since John had no sons, all of Brandenburg, along with the districts of Beeskow and Storkow—which had been added by purchase to the new mark, John George.—came under the rule of his nephew, John George. Born on September 11, 1525, this prince had served in the field under Charles V, and, disliking his father's policies and associates, had stayed away from Berlin, focusing mostly on managing the secularized bishopric of Brandenburg that he acquired in 1560. Once he became elector, he rushed to implement his ideas. His father’s favorites were exiled, foreigners were removed from public office, replaced by locals, and significant savings were made, earning John George the nickname Oekonom, or steward. To help relieve the heavy debt left by Joachim, the elector proposed a tax on wheat and other grains. There was some pushback, but eventually, the estates of both divisions of the mark agreed—though only after concessions were made to the nobles, who held sway in the diet, pushing the peasantry into servitude. As a result, John George was popular with the nobles and to some extent with the towns. Protestant refugees from France and the Netherlands were encouraged to settle in Brandenburg, and a period of peace was advantageous for a region that was still lagging behind other areas of Germany. In matters of religion, the elector followed Lutheran teachings, which were widespread among his people. He had accepted the Formula Concordiae, a Lutheran document introduced in June 1580, and aimed to prevent any deviation from its principles. However, his aversion to Calvinism and to external conflicts kept him from taking significant action to defend Protestantism against the counter-reformation’s assaults. He did join the Torgau league, which voted to support Henry IV of France in 1591, but he refused to help the United Provinces, or even to support his eldest son, Joachim Frederick, the administrator of the archbishopric of Magdeburg, whose right to sit and vote in the imperial diet was challenged, nor his grandson John George, whose election to the bishopric of Strasbourg faced opposition from a Roman Catholic minority in the chapter. This disregard for the welfare of Protestants widened the rift between the elector and his eldest son, which was further deepened when John George, ignoring the Dispositio Achillea, left the new mark to one of his younger sons. He died on January 8, 1598.

Joachim Frederick, who now became elector, was born on the 27th of January 1546. Since 1553 he had held the bishopric of Havelberg, since 1555 that of Lebus; he had been administrator of Magdeburg since 1566, and of Brandenburg since 1571. Resigning these dignities in 1598, he contested his father’s 424 will, and was successful in preventing a division of the electorate. An agreement with George Frederick, the childless margrave of Joachim Frederick. Ansbach and Bayreuth, paved the way for an arrangement with the elector’s younger brothers, who after the margrave’s death in April 1603, shared his lands in Franconia, and were compensated in other ways for surrendering all claims on Brandenburg. This agreement, known as the Gera Bond, ratified the Dispositio Achillea. By George Frederick’s death, Joachim became administrator of the duchy of Prussia, ruled nominally by the weak-minded Albert Frederick, but he had some difficulty in asserting his position. In Brandenburg he made concessions to the nobles at the expense of the peasantry, and admitted the right of the estates to control taxation. In religious matters he was convinced of the necessity of a union between Lutherans and Calvinists, and took steps to bring this about. Public opinion, however, in Brandenburg was too strong for him, and he was compelled to fall back upon the Lutheran Formula and the religious policy of his father. Joachim seems to have been a wise ruler, who improved in various ways the condition of the mark. He married Catherine, daughter of John, margrave of Brandenburg-Cüstrin, and when he died, on the 18th of July 1608, was succeeded by his eldest son John Sigismund.

Joachim Frederick, who became elector, was born on January 27, 1546. Since 1553, he had held the bishopric of Havelberg, and since 1555, he was the bishop of Lebus; he had been the administrator of Magdeburg since 1566 and of Brandenburg since 1571. After resigning these positions in 1598, he contested his father's will and successfully prevented a division of the electorate. An agreement with George Frederick, the childless margrave of Ansbach and Bayreuth, set the stage for an arrangement with the elector's younger brothers, who, after the margrave’s death in April 1603, shared his lands in Franconia and were compensated in other ways for giving up all claims on Brandenburg. This agreement, known as the Gera Bond, confirmed the Dispositio Achillea. After George Frederick died, Joachim became the administrator of the duchy of Prussia, which was ruled nominally by the ineffectual Albert Frederick, but he faced some challenges in establishing his authority. In Brandenburg, he made concessions to the nobles at the expense of the peasantry and allowed the estates to control taxation. In religious matters, he believed in the need for a union between Lutherans and Calvinists and took steps to promote this. However, public opinion in Brandenburg was too strong against him, forcing him to revert to the Lutheran Formula and the religious policy of his father. Joachim appears to have been a wise ruler who made various improvements to the mark's condition. He married Catherine, the daughter of John, margrave of Brandenburg-Cüstrin, and when he died on July 18, 1608, he was succeeded by his eldest son John Sigismund.

The new elector, born on the 8th of November 1572, had married in 1594 Anna, daughter of Albert Frederick of Prussia, a union which not only strengthened the pretensions of the electors of Brandenburg to the succession in John Sigismund. that duchy, but gave to John Sigismund a claim on the duchies of Cleves, Jülich and Berg, and other Rhenish lands should the ruling family become extinct. In March 1609 the death of Duke John William left these duchies without a ruler, and by arrangement they were occupied jointly by the elector and by his principal rival, Wolfgang, son of Philip Louis, count palatine of Neuburg. This proceeding aroused some opposition, and, complicated by religious considerations and by the excited state of European politics, almost precipitated a general war. However, in November 1614 the dispute was temporarily settled by the treaty of Xanten. Brandenburg obtained the duchy of Cleves with the counties of Mark and Ravensberg, but as the Dutch and Spanish garrisons were not withdrawn, these lands were only nominally under the elector’s rule. In 1609, John Sigismund had joined the Evangelical Union, probably to win support in the Rhineland, and the same consideration was doubtless one reason why, in 1613, he forsook the Lutheran doctrines of his family, and became an adherent of the reformed, or Calvinist, faith. This step aroused grave discontent in the electorate, and, quickly abandoning his attempts to proselytize, the elector practically conceded religious liberty to his subjects. Over the Cleves-Jülich succession, John Sigismund had incurred heavy expenses, and the public debt had again mounted up. He was thus obliged to seek aid from the estates, and in return for grants to make concessions to the nobles. The elector spent much of his time in Prussia striving to assert his authority in that duchy, and in August 1618, according to the arrangement of 1569, became duke by the death of Albert Frederick. He only enjoyed this dignity for a short time, as he died on the 23rd of December 1619. He was succeeded by his eldest son, George William.

The new elector, born on November 8, 1572, married Anna, the daughter of Albert Frederick of Prussia, in 1594. This marriage not only strengthened the claims of the electors of Brandenburg to the succession in John Sigismund. that duchy but also gave John Sigismund a claim to the duchies of Cleves, Jülich, and Berg, as well as other Rhenish territories, in case the ruling family died out. In March 1609, the death of Duke John William left these duchies without a ruler, and by agreement, they were jointly occupied by the elector and his main rival, Wolfgang, the son of Philip Louis, Count Palatine of Neuburg. This situation sparked some opposition and, complicated by religious issues and the tense state of European politics, almost led to a general war. However, in November 1614, the dispute was temporarily resolved by the Treaty of Xanten. Brandenburg gained the duchy of Cleves along with the counties of Mark and Ravensberg, but since the Dutch and Spanish garrisons were not withdrawn, these lands remained only nominally under the elector's control. In 1609, John Sigismund joined the Evangelical Union, likely to gain support in the Rhineland, and this consideration was probably one reason why, in 1613, he abandoned his family's Lutheran beliefs and became a follower of the Reformed or Calvinist faith. This decision caused significant unrest within the electorate, and he quickly gave up on trying to convert others, effectively granting his subjects religious freedom. John Sigismund had incurred substantial expenses over the Cleves-Jülich succession, and the public debt had risen again. Thus, he was forced to seek assistance from the estates, agreeing to make concessions to the nobles in exchange for grants. The elector spent much of his time in Prussia, working to assert his authority there, and in August 1618, following the arrangement of 1569, became duke upon the death of Albert Frederick. He held this title for a short period, as he died on December 23, 1619. He was succeeded by his eldest son, George William.

The new elector, born on the 3rd of November 1597, proved a weak and incapable ruler. He had married Elizabeth, daughter of Frederick IV., elector palatine of the Rhine, and sister of the elector Frederick V., afterwards king of George William. Bohemia, and before his accession had acted as his father’s representative in Cleves. Although a Protestant he was under the influence of Adam, count of Schwarzenberg, who was a Roman Catholic of imperialist sympathies. As a result the elector remained neutral during the early years of the Thirty Years’ War in spite of his relationship with Frederick of the Palatinate, and the obvious danger to his Rhenish lands. This attitude was not successful. Brandenburg was ravaged impartially by both parties, and in 1627 George William attacked his brother-in-law, Gustavus Adolphus of Sweden, who was using Prussia as a base of operations for his war against Poland. This campaign was short and inglorious for Brandenburg, and the elector was soon compelled to make peace. Although alarmed by the edict of restitution of 1629, George William took no steps to help the Protestants. In 1631, however, Gustavus Adolphus marched on Berlin, compelled the elector to cede the fortress of Spandau, and to aid him with men and money. The Brandenburg troops then assisted the Swedes until after the death of Gustavus in 1632, and the Swedish defeat at Nördlingen in 1634, when the elector assented to the treaty of Prague, which was made in May 1635 between the emperor Ferdinand II. and John George I., elector of Saxony. The imperialists did nothing, however, to drive the Swedes from Brandenburg, and the unfortunate land was entirely at the mercy of the enemy. This was the principal reason why the elector was unable to annex Pomerania when its last duke, Bogislaus XIV., died in 1637. In 1638 George William transferred his residence to Königsberg, leaving Schwarzenberg to administer the electorate. Although his harsh measures aroused some irritation, the count did something to rid the land of the Swedes and to mitigate its many evils; but its condition was still very deplorable when George William died at Königsberg on the 1st of December 1640, leaving an only son, Frederick William. The most important facts in the internal history of Brandenburg during the 16th century were the increase in the power of the estates, owing chiefly to the continuous pecuniary needs of the electors; the gradual decline in the political importance of the towns, due mainly to intestine feuds; and the lapse of the peasantry into servitude. These events gave a preponderance of power to the nobles, but concurrently a number of circumstances were silently preparing the way for a great increase of authority on the part of the ruler. The substitution of the elector for the pope as head of the church; the introduction of Roman law with its emphasis on a central authority and a central administration; the determined and successful efforts to avoid any partition of the electorate; and the increasing tendency of the separate sections of the diet to act independently; all tended in this direction. This new order was heralded in 1604 by the establishment of a council of state, devoted to the interests of the elector, which strengthened his authority, and paved the way for a bureaucratic government.

The new elector, born on November 3, 1597, turned out to be a weak and ineffective ruler. He married Elizabeth, the daughter of Frederick IV, elector palatine of the Rhine, and sister of elector Frederick V, who later became king of Bohemia. Before he took over, he represented his father in Cleves. Although he was a Protestant, he was influenced by Adam, Count of Schwarzenberg, a Roman Catholic with imperialist views. As a result, the elector stayed neutral during the early years of the Thirty Years’ War, despite his ties to Frederick of the Palatinate and the clear threat to his Rhenish territories. This decision was not advantageous. Brandenburg was equally devastated by both sides, and in 1627, George William attacked his brother-in-law, Gustavus Adolphus of Sweden, who was using Prussia as a base for his war against Poland. This campaign was short-lived and shameful for Brandenburg, and the elector soon had to seek peace. Although the edict of restitution in 1629 alarmed him, George William did not take any action to assist the Protestants. However, in 1631, Gustavus Adolphus marched on Berlin, forcing the elector to give up the fortress of Spandau and support him with troops and funds. The Brandenburg forces then aided the Swedes until after Gustavus's death in 1632 and the Swedish defeat at Nördlingen in 1634, when the elector agreed to the Treaty of Prague, signed in May 1635 between Emperor Ferdinand II and John George I, elector of Saxony. However, the imperialists did not make any efforts to drive the Swedes out of Brandenburg, leaving the unfortunate land completely at their mercy. This was the main reason the elector could not annex Pomerania when its last duke, Bogislaus XIV, died in 1637. In 1638, George William moved his residence to Königsberg, leaving Schwarzenberg to govern the electorate. Although his harsh measures caused some irritation, the count did manage to rid the land of the Swedes and alleviate some of its many issues; but the situation remained dire when George William died in Königsberg on December 1, 1640, leaving behind an only son, Frederick William. The key developments in Brandenburg's internal history during the 16th century included the growing power of the estates, largely due to the continuous financial needs of the electors; the gradual decline in the political significance of the towns, mainly because of internal conflicts; and the descent of the peasantry into servitude. These events gave increased power to the nobles, but at the same time, various factors were quietly laying the groundwork for a significant boost in the ruler's authority. The elector's role as head of the church replaced that of the pope; Roman law was introduced with an emphasis on central authority and administration; there were determined and successful efforts to prevent the division of the electorate; and the increasing tendency of the individual sections of the diet to act independently all contributed to this shift. This new order was announced in 1604 with the establishment of a council of state dedicated to the elector's interests, which strengthened his authority and set the stage for a bureaucratic government.

When Frederick William, the “Great Elector,” became ruler of Brandenburg in 1640 he found the country in a very deplorable condition. Trade and agriculture were almost destroyed, and the inhabitants, compelled to support Frederick William, the “Great Elector.” the Swedish army of occupation, suffered also from the disorderly conduct of the native soldiers. Although the young elector spent the two first years of his reign mainly in Prussia, he was by no means forgetful of Brandenburg, and began resolutely to root out the many evils which had sprung up during the feeble rule of his father. The powers of Schwarzenberg were curtailed; the state council was restored; and the licence of the soldiers was restrained, while their numbers were reduced. Then turning his attention to the Swedes a truce was arranged, and soon afterwards, in return for an indemnity, they agreed to evacuate the electorate. Having returned to Brandenburg in 1643, Frederick William remained neutral during the concluding years of the Thirty Years’ War, and set to work to organize an army and to effect financial reforms. About the same time diplomatic methods freed Cleves, Mark and Ravensberg from foreign troops, but the estates of these lands gained a temporary victory when the elector attacked their privileges. However, in 1647 his title was formally admitted by Wolfgang, count palatine of Neuburg.

When Frederick William, the “Great Elector,” became the ruler of Brandenburg in 1640, he found the country in a terrible state. Trade and agriculture were nearly ruined, and the residents, forced to support the occupying Swedish army, also suffered from the unruly behavior of local soldiers. Although the young elector spent the first two years of his reign mainly in Prussia, he didn’t forget about Brandenburg. He started to actively tackle the many problems that had arisen during his father's weak rule. He reduced Schwarzenberg's powers, restored the state council, and limited the soldiers' freedoms while cutting their numbers. Next, he focused on the Swedes, arranging a truce, and soon after, in exchange for compensation, they agreed to leave the electorate. After returning to Brandenburg in 1643, Frederick William stayed neutral during the final years of the Thirty Years’ War and began working on organizing an army and implementing financial reforms. Around the same time, diplomatic efforts removed foreign troops from Cleves, Mark, and Ravensberg, but the estates of those regions temporarily triumphed when the elector challenged their privileges. However, in 1647, Wolfgang, Count Palatine of Neuburg, officially recognized his title.

The terms of the treaty of Westphalia in 1648 are the best commentary on the general success of the elector’s policy. Although he was obliged to give up his claim to the western part of Pomerania in favour of Sweden, he secured the eastern part of that duchy, together with the secularized bishoprics of Halberstadt, Minden and Kammin, and other lands, the whole forming a welcome addition to the area of Brandenburg. He was also promised the archbishopric of Magdeburg when its administrator, Augustus, duke of Saxe-Weissenfels, should die. 425 This event happened in 1680 when he secured the lands of the archbishopric. The elector did not, however, take possession of the newly-acquired territories at once. Fresh difficulties arose with Sweden, and it was not until 1653 that eastern Pomerania was freed from her soldiers. Meanwhile a new quarrel had broken out with Wolfgang of Neuburg. In 1650 Frederick William attacked his rival, but a variety of circumstances, among others a change of government in the Netherlands, and the resistance of the estates of Cleves, thwarted his plans, and he was compelled to listen to the mediating powers, and to acquiesce in the status quo.

The terms of the Treaty of Westphalia in 1648 are the best evidence of how successful the elector's strategy was. Even though he had to give up his claim to the western part of Pomerania to Sweden, he managed to secure the eastern part of that duchy, along with the secularized bishoprics of Halberstadt, Minden, and Kammin, as well as other lands, all of which made a valuable addition to Brandenburg. He was also promised the archbishopric of Magdeburg when its administrator, Augustus, Duke of Saxe-Weissenfels, passed away. 425 This happened in 1680 when he acquired the lands of the archbishopric. However, the elector did not immediately take possession of the newly acquired territories. New issues arose with Sweden, and it wasn’t until 1653 that eastern Pomerania was freed from their soldiers. Meanwhile, another conflict emerged with Wolfgang of Neuburg. In 1650, Frederick William attacked his rival, but a series of circumstances, including a change of government in the Netherlands and resistance from the estates of Cleves, thwarted his plans, forcing him to listen to the mediating powers and accept the status quo.

Profiting by these reverses the elector then undertook a series of internal reforms, tending to strengthen the central authority, and to mitigate the constant lack of money, which was perhaps his chief obstacle to success; a work in which he was aided by George, count of Waldeck (1620-1692), who became his chief adviser about this time. In 1651 the powers of the state council were extended to include all the lands under the elector’s rule; and a special committee was appointed to effect financial economies, and so to augment the electoral resources. In imperial politics Frederick William supported the election of Ferdinand, son of the emperor Ferdinand III., as king of the Romans in 1653; but when the emperor failed to fulfil his promises, influenced by Waldeck, he acted in opposition to the imperial interests, and even formed a plan for a great alliance against the Habsburgs. These projects were disturbed by the war which broke out in 1655 between Sweden and Poland. In this struggle the elector fought first on one side and then on the other; but the important consequences of his conduct belong rather to the history of the duchy of Prussia (q.v.). The transfer of the elector’s support from Sweden to Poland in 1656 was followed by the fall from power of Waldeck, who was succeeded by Otto von Schwerin (1616-1679), under whose influence the elector’s relations with the emperor became more cordial.

Taking advantage of these setbacks, the elector launched a series of internal reforms aimed at strengthening central authority and addressing the ongoing financial shortages, which were probably his biggest hurdle to success. He was supported in this effort by George, Count of Waldeck (1620-1692), who became his main advisor around this time. In 1651, the powers of the state council were expanded to cover all the lands under the elector’s control, and a special committee was created to implement financial efficiencies and increase the electoral resources. In imperial politics, Frederick William backed the election of Ferdinand, son of Emperor Ferdinand III, as king of the Romans in 1653. However, when the emperor did not fulfill his promises, influenced by Waldeck, he opposed imperial interests and even devised a plan for a significant alliance against the Habsburgs. These plans were interrupted by the war that erupted in 1655 between Sweden and Poland. In this conflict, the elector sided alternately with each side; however, the significant outcomes of his actions are more relevant to the history of the Duchy of Prussia (q.v.). The elector's switch of support from Sweden to Poland in 1656 led to Waldeck's fall from power, and he was replaced by Otto von Schwerin (1616-1679), whose influence made the elector’s relationship with the emperor more amicable.

The increase in the prestige of Brandenburg was due chiefly to his army, which was gradually brought to a high state of efficiency. A proper organization was established to superintend the pay and maintenance of the soldiers, and they were commanded by experienced officers, among others by Georg Derfflingen (1606-1695), and Otto von Sparr (1605-1668). The general poverty, however, made the estates reluctant to support a standing army, and after the peace of Oliva in 1660, it was reduced to about 3500 men. The continual difficulties with the estates of his different dominions had harassed and hampered the elector, and the general peace which followed the treaty of Oliva offered a favourable opportunity to curtail their powers. Undaunted by two previous rebuffs he attacked the estates of Cleves, and by a display of force gained a substantial victory. Some important privileges were annulled, and he obtained a considerable sum of money. The Landtag of Brandenburg was not cowed so easily into submission, but an increase of revenue was obtained, and the stubborn struggle which ensued in Prussia ended in a victory for the ruler. This increased income enabled the elector to take a more considerable part in European politics. In 1663 he assisted the imperialists in their struggle with the Turks; in 1666 the dispute over Cleves, Mark and Ravensberg was finally settled, and Brandenburg were confirmed in the possession of these lands; and in the same year a reconciliation was effected with Sweden. Several disputes which threatened to disturb the peace of the Empire were settled through his mediation, and he compelled the citizens of Magdeburg to do homage to him. In religious matters he interceded with the emperor and the diet for the Protestants, and sought, but without success, to bring about a reconciliation between Lutherans and Calvinists in Brandenburg.

The rise in the prestige of Brandenburg was mainly due to its army, which was gradually made highly efficient. A proper organization was set up to manage the pay and upkeep of the soldiers, who were led by experienced officers, including Georg Derfflingen (1606-1695) and Otto von Sparr (1605-1668). However, the overall poverty made the estates hesitant to support a standing army, and after the peace of Oliva in 1660, it was cut down to about 3,500 men. The ongoing issues with the estates across his various territories had troubled and hindered the elector, and the general peace that followed the treaty of Oliva provided a good opportunity to reduce their powers. Undeterred by two previous setbacks, he took on the estates of Cleves, and through a show of strength, he achieved a significant victory. Some important privileges were revoked, and he secured a substantial amount of money. The Landtag of Brandenburg wasn't easily subdued, but an increase in revenue was achieved, and the stubborn conflict that followed in Prussia ended in the ruler's favor. This increased income allowed the elector to play a more substantial role in European politics. In 1663, he helped the imperialists in their fight against the Turks; in 1666, the dispute over Cleves, Mark, and Ravensberg was finally resolved, and Brandenburg was confirmed in its possession of these lands; and in the same year, a reconciliation with Sweden was achieved. Several disputes that threatened the peace of the Empire were settled through his mediation, and he forced the citizens of Magdeburg to pledge loyalty to him. In religious matters, he advocated for the Protestants with the emperor and the diet and sought, though unsuccessfully, to reconcile Lutherans and Calvinists in Brandenburg.

The elector’s relations with Louis XIV. of France are full of interest. After the conclusion of the war of devolution in 1667, he allied himself with Louis, and together they agreed to support the candidature of Wolfgang of Neuburg for the vacant Polish throne. In 1668, moreover, he refused to join the triple alliance against France, but soon afterwards became aware of the danger to his country from the aggressive policy of Louis. The United Provinces were bound to him by religious interests, political considerations, and family ties alike, and he could not be indifferent when their position was threatened by France. In spite of tempting offers from Louis, he was the first to join the Dutch when they were attacked by Louis in 1672, and conducted an ineffectual campaign on the Rhine until June 1673, when he was forced to make peace. In July 1674, however, he joined the Empire, the United Provinces and Spain, and in return for a subsidy, fought against France in Alsace. Meanwhile Louis had instigated the Swedes to invade Brandenburg, which had been left to the care of John George II., prince of Anhalt-Dessau. Hastening from Franconia to defend the electorate, Frederick William gained a complete victory over a superior number of the enemy at Fehrbellin on the 28th of June 1675, a great and glorious day for the arms of Brandenburg. Aided by the imperialists and the Danes, he followed up this success, and cleared Brandenburg and Pomerania of the Swedes, capturing Stettin in 1677 and Stralsund in 1678, while an attack made by Sweden on Prussia was successfully repelled. The general peace of Nijmwegen was followed by the treaty of St Germain-en-Laye in June 1679 between Sweden and Brandenburg. Owing, however, to the insistence of Louis XIV. and the indifference, or weakness, of the emperor Leopold I., the elector was forced to restore western Pomerania to Sweden, in return for the payment of 300,000 crowns by France. This feebleness on the part of his ally induced Frederick William to listen more readily to the overtures of Louis, and in 1679, and again in 1681, he bound himself to support the interests of France. He had, moreover, a further grievance against the emperor as Leopold refused to recognize his right to the Silesian duchies of Liegnitz, Brieg and Wohlau, which had been left without a ruler in 1675. About 1684, however, the foreign policy of Brandenburg underwent another change. Disliking the harshness shown by Louis to the Protestants, the elector concluded an alliance with William, prince of Orange, in August 1685; and entered into more friendly relations with the emperor. Further incensed against France by the revocation of the edict of Nantes in 1685, he made an alliance with Leopold in January 1686, agreeing in return for a subsidy to send troops against the Turks. Soon afterwards he received Schwiebus to compensate him for abandoning his claim on the Silesian duchies, and in a secret treaty made promises of support to Leopold. The great elector died in May 1688, leaving his territories to his eldest son, Frederick.

The elector's relationship with Louis XIV of France is quite interesting. After the war of devolution ended in 1667, he formed an alliance with Louis, and they decided to support Wolfgang of Neuburg's bid for the Polish throne. In 1668, he also turned down the chance to join the triple alliance against France, but soon realized the threat to his country from Louis's aggressive policies. The United Provinces were connected to him through shared religious beliefs, political interests, and family ties, so he couldn't ignore their situation when France threatened them. Despite enticing offers from Louis, he was the first to support the Dutch when they were attacked by Louis in 1672 and led an unsuccessful campaign on the Rhine until June 1673, when he had to make peace. In July 1674, however, he joined the Empire, the United Provinces, and Spain, and in exchange for financial support, fought against France in Alsace. Meanwhile, Louis had incited the Swedes to invade Brandenburg, which John George II, prince of Anhalt-Dessau, was responsible for protecting. Rushing from Franconia to defend the electorate, Frederick William achieved a decisive victory over a larger enemy force at Fehrbellin on June 28, 1675, marking a significant and glorious day for Brandenburg. With help from the imperialists and the Danes, he built on this success and drove the Swedes out of Brandenburg and Pomerania, capturing Stettin in 1677 and Stralsund in 1678, while successfully repelling a Swedish attack on Prussia. The peace agreement of Nijmwegen was followed by the St Germain-en-Laye treaty in June 1679 between Sweden and Brandenburg. However, due to Louis XIV's pressure and Emperor Leopold I's indifference or weakness, the elector had to return western Pomerania to Sweden in exchange for 300,000 crowns from France. This weakness from his ally led Frederick William to consider Louis's overtures more seriously, and in 1679 and again in 1681, he committed to support France's interests. He also had another issue with the emperor as Leopold refused to acknowledge his rights to the Silesian duchies of Liegnitz, Brieg, and Wohlau, which had been without a ruler since 1675. Around 1684, however, Brandenburg's foreign policy changed again. Displeased with Louis's harsh treatment of Protestants, the elector formed an alliance with William, prince of Orange, in August 1685 and improved his relations with the emperor. Further angered by the revocation of the edict of Nantes in 1685, he allied with Leopold in January 1686, agreeing to send troops against the Turks in exchange for a subsidy. Soon after, he received Schwiebus as compensation for giving up his claim on the Silesian duchies, and in a secret treaty, promised support to Leopold. The great elector died in May 1688, leaving his territories to his eldest son, Frederick.

The remarkable services of Frederick William to his country can best be judged by comparing its condition in 1640 with that in 1688. At his accession the greater part of his territory was occupied by strangers and devastated by war, and in European politics Brandenburg was merely an appendage of the empire. Its army was useless; its soil was poor; its revenue was insignificant. At his death the state of Brandenburg-Prussia was a power to be reckoned with in all European combinations. Inferior to Austria alone among the states of the Empire, it was regarded as the head of the German Protestantism; while the fact that one-third of its territory lay outside the Empire added to its importance. Its area had been increased to over 40,000 sq. m.; its revenue had multiplied sevenfold; and its small army was unsurpassed for efficiency. The elector had overthrown Sweden and inherited her position on the Baltic, and had offered a steady and not ineffectual resistance to the ambition of France.

The impressive contributions of Frederick William to his country can be best understood by comparing its state in 1640 to that in 1688. When he took the throne, most of his territory was occupied by foreigners and ravaged by war; in the realm of European politics, Brandenburg was just a minor part of the empire. Its army was ineffective, its land was unproductive, and its revenue was minimal. By the time of his death, Brandenburg-Prussia had become a significant power in all European affairs. It was only second to Austria among the states of the Empire and was seen as the leader of German Protestantism. The fact that a third of its territory was outside the Empire further boosted its significance. Its area had expanded to over 40,000 square miles, its revenue had increased sevenfold, and its small army was unmatched in efficiency. The elector had defeated Sweden and taken her position on the Baltic Sea, and he had provided steady and effective resistance to France’s ambitions.

While thus winning for himself a position in the councils of Europe, Frederick William was not less active in strengthening the central authority within his own dominions. He found Brandenburg a constitutional state, in which the legislative power was shared between the elector and the diet; he left it to his successor substantially an absolute monarchy. Many circumstances assisted to bring about this change, among the chief of which were the want of harmonious action on the part of the estates, and the decline in the political power of the towns. The substitution of a permanent excise for the subsidies granted from time to time by the estates also tended to increase his independence, and the officials or Steuerräthe, appointed by him to collect this tax in the towns, gradually absorbed many of 426 the administrative functions of the local authorities. The nobles and prelates generally preferred to raise their share of the revenue by the old method of a bede, or contribution, thus weakening the remaining bond between them and the burghers.

While securing a place in the councils of Europe, Frederick William was equally active in strengthening central authority within his own territories. He found Brandenburg as a constitutional state where legislative power was shared between the elector and the diet; he left it to his successor largely as an absolute monarchy. Several factors contributed to this change, notably the lack of coordinated efforts among the estates and the decline of political power among the towns. The replacement of temporary subsidies from the estates with a permanent excise tax also increased his independence, and the officials or Steuerräthe he appointed to collect this tax in the towns gradually took over many administrative functions from local authorities. The nobles and prelates typically preferred to gather their share of revenue using the old method of a bede, or contribution, which weakened the remaining connection between them and the townspeople.

In matters of general administration Frederick William showed himself a prudent and careful ruler, and laid the foundation of the future greatness of Prussia in almost every department. The wounds inflicted by the Thirty Years’ War were in a great measure healed, and the finances and credit of the state were established on a firm basis. Agriculture and commerce were improved and encouraged by a variety of useful measures, and in this connexion the settlement of a large number of Flemings, and the welcome extended to French Protestants, both before and after the revocation of the edict of Nantes, were of incalculable service. A small but efficient navy was founded, and strict economy, together with increasing resources, enabled a disciplined army to be maintained. Education was not neglected, a trading company was established, and colonies were founded on the west coast of Africa. In religious matters Calvinists and Lutherans were placed upon an equality, but the elector was unable to impress his own spirit of tolerance upon the clergy, who were occupied with ecclesiastical squabbles while the state of education and of public morals left much to be desired. The condition of the peasantry, however, during this reign reached its lowest point, and the “recess,” or charter, of 1653 practically recognizes the existence of villenage. While the nobles had been losing power with regard to the ruler they had been increasing it at the expense of the peasants. The Thirty Years’ War afforded them frequent opportunities of replacing the village Schulzen, or magistrates, with officials of their own; and the fact that their share of taxation was wholly wrung from the peasants made the burden of the latter much heavier than that of the townsmen.

In terms of general administration, Frederick William was a careful and sensible leader who laid the groundwork for Prussia's future success in almost every area. The wounds from the Thirty Years’ War were largely healed, and the state's finances and credit were firmly established. Agriculture and trade were improved and supported through various beneficial measures, including the settlement of many Flemish people and the acceptance of French Protestants, both before and after the revocation of the Edict of Nantes, which proved to be incredibly valuable. A small but effective navy was created, and strict budgeting, along with growing resources, allowed for the maintenance of a disciplined army. Education was not ignored; a trading company was formed, and colonies were established on the west coast of Africa. In religious affairs, Calvinists and Lutherans were placed on equal footing, but the elector couldn't instill his own spirit of tolerance among the clergy, who were preoccupied with church disputes while the state of education and public morals left much to be desired. However, the condition of the peasantry during this reign reached its lowest point, and the "recess," or charter, of 1653 essentially recognized the existence of serfdom. While the nobility lost power in relation to the ruler, they gained it at the expense of the peasants. The Thirty Years’ War often provided them with chances to replace village magistrates, or Schulzen, with their own officials; and since their share of taxes came entirely from the peasants, the burden on the latter was much heavier than that on townspeople.

The new elector, Frederick III., followed in general the policy of his father. Having persuaded his step-brothers to surrender the principalities bequeathed to them by the great elector, he assisted William of Orange to make his Frederick III. descent on England; then in 1688 allied himself with other German princes against Louis XIV., and afterwards fought for the Empire against both France and Turkey. Before he became elector Frederick had promised the emperor that he would restore Schwiebus, and he was now called upon to fulfil this engagement, which after some murmuring he did in 1695. This fact, however, together with some slights put upon him at the peace of 1697, led him to look with less favour upon imperial interests. Frederick’s chief adviser about this time was Eberhard Danckelmann (1643-1722), whose services in continuing the reforming work of the great elector were very valuable; but having made many enemies, the electress Sophia among them, he fell from power in 1697, and was imprisoned for several years. The most important work of the elector was to crown the labours of his father by securing the kingly title for himself and his descendants. Broached in 1692 this matter was brought up again in 1698 when the emperor and his ministers, faced with the prospect of a fight over the Spanish succession, were anxious to conciliate Brandenburg. It was at length decided that the title should be taken from Prussia rather than from Brandenburg as the former country lay outside the Empire, and in return Frederick promised to assist Leopold with 8000 men. The coronation ceremony took place at Königsberg on the 18th of January 1701. The territorial additions to Brandenburg during this reign were few and unimportant, but the comparative wealth and prosperity enabled the elector to do a good deal for education, and to spend some money on buildings. In 1694 the university of Halle was founded; academies for arts and sciences were established, and Berlin was greatly improved. The subsequent history of Brandenburg is merged in that of Prussia (q.v.).

The new elector, Frederick III, generally followed his father's policies. After convincing his step-brothers to give up the principalities left to them by the great elector, he helped William of Orange make his attempt to take control of England. Then, in 1688, he allied with other German princes against Louis XIV and later fought for the Empire against both France and Turkey. Before becoming elector, Frederick had promised the emperor to restore Schwiebus, and he was called to fulfill that promise in 1695 after some hesitation. However, this and some grievances he faced at the peace talks in 1697 made him less supportive of imperial interests. Around this time, Frederick's main adviser was Eberhard Danckelmann (1643-1722), whose contributions to continuing the reforms of the great elector were highly valuable; however, after making many enemies, including the electress Sophia, he lost power in 1697 and was imprisoned for several years. The elector's most significant achievement was securing the royal title for himself and his descendants, a matter first raised in 1692 and revisited in 1698 when the emperor and his ministers, anticipating a conflict over the Spanish succession, sought to appease Brandenburg. Ultimately, it was decided that the title should be derived from Prussia instead of Brandenburg, as Prussia was outside the Empire, and in exchange, Frederick promised to support Leopold with 8,000 troops. The coronation ceremony took place in Königsberg on January 18, 1701. The territorial gains for Brandenburg during this reign were minimal and insignificant, but the relative wealth and prosperity enabled the elector to invest in education and construction. In 1694, the University of Halle was established, academies for arts and sciences were created, and Berlin saw significant improvements. The later history of Brandenburg is intertwined with that of Prussia (q.v.).

Bibliography.—H. Brosien, Geschichte der Mark Brandenburg in Mittelalter (Leipzig, 1887); G.G. Küster, Bibliotheca historica Brandenburgensis (Breslau, 1743); and Accessiones (Breslau, 1768), and Collectio opusculorum historiam marchicam illustrantium (Breslau, 1731-1733); A. Voss and G. Stimming, Vorgeschichtliche Alterthümer aus der Mark Brandenburg (Berlin, 1886-1890); F. Voigt, Geschichte des brandenburgisch-preussischen Staats (Berlin, 1878); E. Berner, Geschichte des preussischen Staats (Berlin, 1890-1891); A.F. Riedel, Codex diplomaticus Brandenburgensis (Berlin, 1838-1865); J. Heidemann, Die Reformation in der Mark Brandenburg (Berlin, 1889); Forschungen zur brandenburgischen und preussischen Geschichte, edited by R. Koser (Leipzig, 1888 fol.); T. Carlyle, History of Frederick the Great, vol. i. (London, 1858); J.G. Droysen, Geschichte der preussischen Politik (Berlin, 1855-1886); E. Lavisse, Étude sur une des origines de la monarchie prussienne (Paris, 1875); B. Gebhardt, Handbuch der deutschen Geschichte, Band ii. (Leipzig, 1901).

References.—H. Brosien, History of the Margraviate of Brandenburg in the Middle Ages (Leipzig, 1887); G.G. Küster, Historical Library of Brandenburg (Breslau, 1743); and Accessions (Breslau, 1768), and Collection of Historical Writings on the Margraviate (Breslau, 1731-1733); A. Voss and G. Stimming, Prehistoric Antiquities from the Margraviate of Brandenburg (Berlin, 1886-1890); F. Voigt, History of the Brandenburg-Prussian State (Berlin, 1878); E. Berner, History of the Prussian State (Berlin, 1890-1891); A.F. Riedel, Diplomatic Codex of Brandenburg (Berlin, 1838-1865); J. Heidemann, The Reformation in the Margraviate of Brandenburg (Berlin, 1889); Researches on Brandenburg and Prussian History, edited by R. Koser (Leipzig, 1888 fol.); T. Carlyle, History of Frederick the Great, vol. i. (London, 1858); J.G. Droysen, History of Prussian Policy (Berlin, 1855-1886); E. Lavisse, Study on One of the Origins of the Prussian Monarchy (Paris, 1875); B. Gebhardt, Handbook of German History, vol. ii. (Leipzig, 1901).

(A. W. H.*)

BRANDENBURG, the central and one of the largest provinces of Prussia, consisting of a part of the former electorate of Brandenburg from which it derives its name. With the other territories of the elector of Brandenburg, it was merged in 1701 in the kingdom of Prussia, and when the administration of Prussia was reformed in 1815, Brandenburg became one of the provinces of Prussia. The boundaries of the new province, however, differed considerably from those of the old district. The old mark, the district on the left bank of the Elbe, was added to the province of Saxony, and in return a district to the south, taken from the kingdom of Saxony, was added to the province of Brandenburg. It has an area of 15,382 sq. m., and is divided into the two governments of Potsdam and Frankfort-on-Oder; the capital, Berlin, forming a separate jurisdiction. The province is a sandy plain interspersed with numerous fertile districts and considerable stretches of woodland, mostly pine and fir. Its barrenness was formerly much exaggerated, when it was popularly described as the “sandbox of the Holy Roman Empire.” It is generally well watered by tributaries of its two principal rivers, the Elbe and the Oder, and is besides remarkable for the number of its lakes, of which it contains between 600 and 700. The mineral products comprise lignite, limestone, gypsum, alum and potter’s earth; barley and rye are the usual cereals; fruits and vegetables are abundant; and considerable quantities of hemp, flax, hops and tobacco are raised. The breeding of sheep receives much attention, and the province exports wool in considerable quantity. Bees are largely kept, and there is an abundance of game. The rivers and lakes also furnish fish, particularly carp, of excellent quality. The climate is cold and raw in winter, excessively hot in summer, and there are frequently violent storms of wind. The manufacturing industry of the province is both varied and extensive, but is for the most part concentrated in the principal towns. The most important branches are the spinning and weaving of wool and cotton, the manufacturing of paper, and the distillation of brandy. Pop. (1895) 2,821,695; (1905) 3,529,839.

BRANDENBURG, is the central and one of the largest provinces of Prussia, made up of part of the former electorate of Brandenburg, which is where it gets its name. In 1701, along with the other territories of the elector of Brandenburg, it merged into the Kingdom of Prussia, and when the administration of Prussia was reorganized in 1815, Brandenburg became one of its provinces. However, the boundaries of the new province differed significantly from those of the old district. The old mark, the area on the left bank of the Elbe River, was added to the province of Saxony, and in exchange, a district to the south, taken from the Kingdom of Saxony, was added to Brandenburg. It covers an area of 15,382 sq. m. and is divided into the two governments of Potsdam and Frankfort-on-Oder, with Berlin serving as a separate jurisdiction. The province is mainly a sandy plain, dotted with many fertile areas and large stretches of woodland, mostly consisting of pine and fir trees. Its barrenness was often overstated in the past, and it was commonly referred to as the "sandbox of the Holy Roman Empire." It is generally well supplied with water from tributaries of its two main rivers, the Elbe and the Oder, and is also notable for its number of lakes, numbering between 600 and 700. The mineral resources include lignite, limestone, gypsum, alum, and potter’s clay; barley and rye are the typical grains grown; fruits and vegetables are plentiful; and significant amounts of hemp, flax, hops, and tobacco are produced. Sheep farming is highly prioritized, and the province exports wool in large quantities. Beekeeping is widespread, and there is plenty of game. The rivers and lakes also provide fish, especially high-quality carp. The climate is cold and harsh in winter, extremely hot in summer, and violent storms are common. The province's manufacturing industry is diverse and extensive, but mainly concentrated in the major towns. The most important sectors include spinning and weaving wool and cotton, paper production, and brandy distillation. Pop. (1895) 2,821,695; (1905) 3,529,839.


BRANDENBURG, a town of Germany, capital of the district and province of same name, on the river Havel, 36 m. S.W. from Berlin, on the main line to Magdeburg and the west. Pop. (1905) 51,251, including 3643 military. The town is enclosed by walls, and is divided into three parts by the river—the old town on the right and the new town on the left bank, while on an island between them is the “cathedral town,”—and is also called, from its position, “Venice.” Many of the houses are built on piles in the river. There are five old churches (Protestant), all more or less noteworthy. These are the Katharinenkirche (nave 1381-1401, choir c. 1410, western tower 1583-1585), a Gothic brick church with a fine carved wooden altar and several interesting medieval tombs; the Petrikirche (14th century Gothic); the cathedral (Domkirche), originally a Romanesque basilica (1170), but rebuilt in the Gothic style in the 14th century, with a good altar-piece (1465), &c., and noted for its remarkable collection of medieval vestments; the Gothardskirche, partly Romanesque (1160), partly Gothic (1348); the Nikolaikirche (12th and 13th centuries), now no longer used. There is also a Roman Catholic church. Of other buildings may be mentioned the former town hall of the “old town” (Altstadt Rathaus), built in the 13th and 14th centuries, now used as government offices; the new Real-gymnasium; and the town hall in the Neustadt, before which, in the market-place, stands a Rolandssäule, a colossal figure 18 ft. in height, hewn out of a single block of stone. A little north of the town is the Marienberg, or Harlungerberg, on which the heathen temple of Triglaff and afterwards the church and convent of St Mary were built. On the top stands a lofty monument 427 to the soldiers from the Mark who fell in the wars of 1864, 1866 and 1870-71. The town has a considerable trade, with manufactures of woollens, silks, linens, hosiery and paper, as well as breweries, tanneries, boat-building and bicycle factories.

BRANDENBURG, is a town in Germany, serving as the capital of the district and province of the same name, located on the river Havel, 36 miles southwest of Berlin, on the main route to Magdeburg and the west. The population in 1905 was 51,251, including 3,643 military personnel. The town is surrounded by walls and divided into three sections by the river—the old town on the right bank and the new town on the left bank, while the “cathedral town” lies on an island between them, earning the nickname “Venice” due to its layout. Many of the houses are built on stilts in the river. There are five old Protestant churches, each noteworthy in its own right. These include the Katharinenkirche (nave 1381-1401, choir around 1410, western tower 1583-1585), a Gothic brick church featuring a beautifully carved wooden altar and several interesting medieval tombs; the Petrikirche (14th-century Gothic); the cathedral (Domkirche), originally a Romanesque basilica (1170), which was rebuilt in the Gothic style in the 14th century and includes a well-crafted altar piece (1465) and a remarkable collection of medieval vestments; the Gothardskirche, which is partly Romanesque (1160) and partly Gothic (1348); and the Nikolaikirche (12th and 13th centuries), which is no longer in use. There is also a Roman Catholic church. Other notable buildings include the former town hall of the “old town” (Altstadt Rathaus), constructed in the 13th and 14th centuries and now serving as government offices; the new Real-gymnasium; and the town hall in the Neustadt, in front of which stands a Rolandssäule, a giant statue 18 feet tall carved from a single stone. Just north of the town is the Marienberg, or Harlungerberg, where a pagan temple dedicated to Triglaff was built, followed by the church and convent of St. Mary. At the summit, there is a tall monument dedicated to the soldiers from the Mark who died in the wars of 1864, 1866, and 1870-71. The town has a significant trade, producing woollens, silks, linens, hosiery, and paper, as well as having breweries, tanneries, boat-building, and bicycle factories.

Brandenburg, originally Brennaburg (Brennabor) or Brendanburg, was originally a town of the Slavic tribe of the Hevelli, from whom it was captured (927-928) by the German king Henry I. In 948 Otto I. founded a bishopric here, which was subordinated first to the archdiocese of Mainz, but from 968 onwards to the newly created archbishopric of Magdeburg. It was, however, destroyed by the heathen Wends in 983, and was only restored when Albert the Bear recaptured the town from them in 1153. In 1539 the bishop of Brandenburg, Matthias von Jagow, embraced the Lutheran faith, and five years later the Protestant worship was established in the cathedral. The see was administered by the elector of Brandenburg until 1598 and then abolished, its territories being for the most part incorporated in the electoral domains. The cathedral chapter, however, survived, and though suppressed in 1810, it was restored in 1824. It consists of twelve canons, of whom three only are spiritual, the other nine prebends being held by noblemen; all are in the gift of the king of Prussia.

Brandenburg, originally Brennaburg (Brennabor) or Brendanburg, was first a town of the Slavic Hevelli tribe, which was taken over (927-928) by the German king Henry I. In 948, Otto I founded a bishopric here, initially part of the archdiocese of Mainz, but from 968 onward, it was linked to the newly established archbishopric of Magdeburg. However, it was destroyed by the pagan Wends in 983 and was only rebuilt when Albert the Bear recaptured the town in 1153. In 1539, the bishop of Brandenburg, Matthias von Jagow, converted to Lutheranism, and five years later, Protestant services were introduced in the cathedral. The see was managed by the elector of Brandenburg until 1598 and then abolished, with most of its territories being added to the electoral domains. The cathedral chapter, however, continued to exist, and although it was suppressed in 1810, it was restored in 1824. It is made up of twelve canons, of whom only three are spiritual; the other nine prebends are held by noblemen, all appointed by the king of Prussia.

The “old” and “new” towns of Brandenburg were for centuries separate towns, having been united under a single municipality so late as 1717.

The "old" and "new" towns of Brandenburg were separate for centuries, officially coming together under one municipality only in 1717.

See Schillmann, Geschichte der Stadt Brandenburg (Brandenburg, 1874-1882).

See Schillmann, Geschichte der Stadt Brandenburg (Brandenburg, 1874-1882).


BRANDER, GUSTAVUS (1720-1787), English naturalist, who came of a Swedish family, was born in London in 1720, and was brought up as a merchant, in which capacity he achieved success and became a director of the Bank of England. His leisure time was occupied in scientific pursuits, and at his country residence at Christchurch in Hampshire he became interested in the fossils so abundant in the clays of Hordwell and Barton. A set of these was presented by him to the British Museum, and they were described by D.C. Solander in the beautifully illustrated work entitled Fossilia Hantoniensia collecta, et in Musaeo Britannico deposita a Gustavo Brander (London, 1766). Brander was elected F.R.S. in 1754, and he was also a trustee of the British Museum. He died on the 21st of January 1787.

BRANDER, GUSTAVUS (1720-1787), an English naturalist from a Swedish family, was born in London in 1720. He was raised to be a merchant, a role in which he found success and eventually became a director of the Bank of England. In his spare time, he pursued scientific interests, particularly during his time at his country home in Christchurch, Hampshire, where he became fascinated by the fossils found in the clays of Hordwell and Barton. He presented a collection of these fossils to the British Museum, which were described by D.C. Solander in the beautifully illustrated book titled Fossilia Hantoniensia collecta, et in Musaeo Britannico deposita a Gustavo Brander (London, 1766). Brander was elected F.R.S. in 1754 and also served as a trustee of the British Museum. He passed away on January 21, 1787.


BRANDES, GEORG MORRIS COHEN (1842-  ), Danish critic and literary historian, was born in Copenhagen on the 4th of February 1842. He became a student in the university in 1859, and first studied jurisprudence. From this, however, his maturer taste soon turned to philosophy and aesthetics. In 1862 he won the gold medal of the university for an essay on The Nemesis Idea among the Ancients. Before this, indeed since 1858, he had shown a remarkable gift for verse-writing, the results of which, however, were not abundant enough to justify separate publication. Brandes, indeed, did not collect his poems till so late as 1898. At the university, which he left in 1864, Brandes was much under the influence of the writings of Heiberg in criticism and Sören Kierkegaard in philosophy, influences which have continued to leave traces on his work. In 1866 he took part in the controversy raised by the works of Rasmus Nielsen in a treatise on “Dualism in our Recent Philosophy.” From 1865 to 1871 he travelled much in Europe, acquainting himself with the condition of literature in the principal centres of learning. His first important contribution to letters was his Aesthetic Studies (1868), in which, in several brief monographs on Danish poets, his maturer method is already foreshadowed. In 1870 he published several important volumes, The French Aesthetics of Our Days, dealing chiefly with Taine, Criticisms and Portraits, and a translation of The Subjection of Women of John Stuart Mill, whom he had met that year during a visit to England. Brandes now took his place as the leading critic of the north of Europe, applying to local conditions and habits of thought the methods of Taine. He became docent or reader in Belles Lettres at the university of Copenhagen, where his lectures were the sensation of the hour. On the professorship of Aesthetics becoming vacant in 1872, it was taken as a matter of course that Brandes would be appointed. But the young critic had offended many susceptibilities by his ardent advocacy of modern ideas; he was known to be a Jew, he was convicted of being a Radical, he was suspected of being an atheist. The authorities refused to elect him, but his fitness for the post was so obvious that the chair of Aesthetics in the university of Copenhagen remained vacant, no one else daring to place himself in comparison with Brandes. In the midst of these polemics the critic began to issue the most ambitious of his works, Main Streams in the Literature of the Nineteenth Century, of which four volumes appeared between 1872 and 1875 (English translation, 1901-1905). The brilliant novelty of this criticism of the literature of the chief countries of Europe at the beginning of the 19th century, and his description of the general revolt against the pseudo-classicism of the 18th century, at once attracted attention outside Denmark. The tumult which gathered round the person of the critic increased the success of the work, and the reputation of Brandes grew apace, especially in Germany and Russia. Among his later writings must be mentioned the monographs on Sören Kierkegaard (1877), on Esaias Tegnér (1878), on Benjamin Disraeli (1878), Ferdinand Lassalle (in German, 1877), Ludvig Holberg (1884), on Henrik Ibsen (1899) and on Anatole France (1905). Brandes has written with great fulness on the main contemporary poets and novelists of his own country and of Norway, and he and his disciples have long been the arbiters of literary fame in the north. His Danish Poets (1877), containing studies of Carsten Hauch, Ludwig Bödtcher, Christian Winther, and Paludan-Müller, his Men of the Modern Transition (1883), and his Essays (1889), are volumes essential to the proper study of modern Scandinavian literature. He wrote an excellent book on Poland (1888; English translation, 1903), and was one of the editors of the German version of Ibsen. In 1877 Brandes left Copenhagen and settled in Berlin, taking a considerable part in the aesthetic life of that city. His political views, however, made Prussia uncomfortable for him, and he returned in 1883 to Copenhagen, where he found a whole new school of writers and thinkers eager to receive him as their leader. The most important of his recent works has been his study of Shakespeare (1897-1898), which was translated into English by William Archer, and at once took a high position. It was, perhaps, the most authoritative work on Shakespeare, not principally intended for an English-speaking audience, which had been published in any country. He was afterwards engaged on a history of modern Scandinavian literature. In his critical work, which extends over a wider field than that of any other living writer, Brandes has been aided by a singularly charming style, lucid and reasonable, enthusiastic without extravagance, brilliant and coloured without affectation. His influence on the Scandinavian writers of the ’eighties was very great, but a reaction, headed by Holger Drachmann, against his “realistic” doctrines, began in 1885 (see Denmark: Literature). In 1900 he collected his works for the first time in a complete and popular edition, and began to superintend a German complete edition in 1902.

BRANDES, GEORG MORRIS COHEN (1842-  ), Danish critic and literary historian, was born in Copenhagen on February 4, 1842. He started studying at the university in 1859, initially focusing on law. However, he soon shifted his interests to philosophy and aesthetics. In 1862, he won the university's gold medal for an essay on The Nemesis Idea among the Ancients. Since 1858, he had shown a remarkable talent for writing poetry, but he had not produced enough to justify publishing a collection. In fact, he didn't compile his poems until 1898. At the university, which he left in 1864, Brandes was significantly influenced by the writings of Heiberg in criticism and Søren Kierkegaard in philosophy, influences that continued to shape his work. In 1866, he participated in the debate sparked by Rasmus Nielsen's works in a treatise on “Dualism in our Recent Philosophy.” From 1865 to 1871, he traveled extensively throughout Europe, familiarizing himself with the literature in major academic hubs. His first major contribution to literature was his Aesthetic Studies (1868), which included several brief essays on Danish poets, foreshadowing his more mature approach. In 1870, he published several significant volumes: The French Aesthetics of Our Days, mainly focusing on Taine, Criticisms and Portraits, and a translation of John Stuart Mill's The Subjection of Women, whom he met during a visit to England that year. Brandes established himself as the leading critic in Northern Europe, applying Taine's methods to local contexts and thoughts. He became a docent or reader in Belles Lettres at the University of Copenhagen, where his lectures were highly popular. When the aesthetics chair opened in 1872, it was widely assumed Brandes would be appointed. However, he had offended many people with his strong support for modern ideas; he was known to be Jewish, labeled a Radical, and suspected of atheism. The authorities ultimately refused to appoint him, but his qualifications for the position were so clear that the chair of Aesthetics at the University of Copenhagen remained vacant, as no one else dared to compare themselves to Brandes. Amidst these controversies, he began to publish his most ambitious work, Main Streams in the Literature of the Nineteenth Century, with four volumes released between 1872 and 1875 (English translation, 1901-1905). The innovative nature of his criticism regarding the literature of leading European nations at the start of the 19th century and his analysis of the general rebellion against the 18th-century pseudo-classicism quickly gained attention beyond Denmark. The turmoil surrounding the critic further boosted the success of his work, and Brandes' reputation flourished, particularly in Germany and Russia. His later writings include monographs on Søren Kierkegaard (1877), Esaias Tegnér (1878), Benjamin Disraeli (1878), Ferdinand Lassalle (in German, 1877), Ludvig Holberg (1884), Henrik Ibsen (1899), and Anatole France (1905). Brandes wrote extensively about the major contemporary poets and novelists from his own country and Norway, and he and his followers became key figures determining literary acclaim in the north. His Danish Poets (1877), which includes studies of Carsten Hauch, Ludwig Bödtcher, Christian Winther, and Paludan-Müller, as well as Men of the Modern Transition (1883) and Essays (1889), are essential volumes for understanding modern Scandinavian literature. He also authored an excellent book on Poland (1888; English translation, 1903) and was one of the editors of the German version of Ibsen. In 1877, Brandes left Copenhagen for Berlin, where he became actively involved in the city's aesthetic community. However, his political views made Prussia uncomfortable for him, leading to his return to Copenhagen in 1883, where he found a new generation of writers and thinkers eager for his leadership. His most significant recent work has been his study of Shakespeare (1897-1898), which William Archer translated into English and quickly gained prominence. It was arguably the most authoritative examination of Shakespeare published in any country, specifically aimed at a non-English-speaking audience. He later worked on a history of modern Scandinavian literature. Brandes’ critical work, which spans a broader scope than that of any other contemporary writer, is complemented by his distinctly engaging style—clear and logical, enthusiastic yet moderate, and vibrant without being pretentious. His impact on Scandinavian writers of the 1880s was substantial, but a reaction led by Holger Drachmann against his “realistic” views began in 1885 (see Denmark: Literature). In 1900, he released a complete and popular edition of his works for the first time and started overseeing a complete German edition in 1902.

His brother Edvard Brandes (b. 1847), also a well-known critic, was the author of a number of plays, and of two psychological novels: A Politician (1889), and Young Blood (1899).

His brother Edvard Brandes (b. 1847), also a renowned critic, wrote several plays and two psychological novels: A Politician (1889) and Young Blood (1899).


BRANDING (from Teutonic brinnan, to burn), in criminal law a mode of punishment; also a method of marking goods or animals; in either case by stamping with a hot iron. The Greeks branded their slaves with a Delta, Δ, for Δοῦλος. Robbers and runaway slaves were marked by the Romans with the letter F (fur, fugitivus); and the toilers in the mines, and convicts condemned to figure in gladiatorial shows, were branded on the forehead for identification. Under Constantine the face was not permitted to be so disfigured, the branding being on the hand, arm or calf. The canon law sanctioned the punishment, and in France galley-slaves could be branded “TF” (travaux forcés) until 1832. In Germany, however, branding was illegal. The punishment was adopted by the Anglo-Saxons, and the ancient law of England authorized the penalty. By the Statute of Vagabonds (1547) under Edward VI. vagabonds, gipsies and brawlers were ordered to be branded, the first two with a large V on the breast, the last with F for “fraymaker.” Slaves, too, 428 who ran away were branded with S on cheek or forehead. This law was repealed in 1636. From the time of Henry VII. branding was inflicted for all offences which received benefit of clergy (q.v.), but it was abolished for such in 1822. In 1698 it was enacted that those convicted of petty theft or larceny, who were entitled to benefit of clergy, should be “burnt in the most visible part of the left cheek, nearest the nose.” This special ordinance was repealed in 1707. James Nayler, the mad Quaker, who in the year 1655 claimed to be the Messiah, had his tongue bored through and his forehead branded B for blasphemer.

BRANDING (from Teutonic brinnan, to burn), in criminal law, refers to a form of punishment and a way of marking goods or animals, typically by stamping with a hot iron. The Greeks branded their slaves with a Delta, Δ, for Slave. Robbers and runaway slaves were marked by the Romans with the letter F (fur, fugitivus); workers in the mines, as well as convicts facing gladiatorial combat, were branded on the forehead for identification. Under Constantine, branding on the face was not allowed, and instead, it was done on the hand, arm, or calf. Canon law approved this punishment, and in France, galley slaves could be branded “TF” (travaux forcés) until 1832. However, branding was illegal in Germany. The Anglo-Saxons adopted this punishment, and ancient English law authorized it. By the Statute of Vagabonds (1547) under Edward VI, vagabonds, gypsies, and brawlers were required to be branded, with the first two getting a large V on the chest and the last an F for “fraymaker.” Runaway slaves were branded with an S on the cheek or forehead. This law was repealed in 1636. Since the time of Henry VII, branding was imposed for any offenses that received the benefit of clergy (q.v.), but this penalty was abolished for such offenses in 1822. In 1698, legislation stated that those convicted of petty theft or larceny who qualified for the benefit of clergy would be “burnt in the most visible part of the left cheek, nearest the nose.” This specific regulation was repealed in 1707. James Nayler, the radical Quaker who claimed to be the Messiah in 1655, had his tongue pierced and his forehead branded with a B for blasphemer.

In the Lancaster criminal court a branding-iron is still preserved in the dock. It is a long bolt with a wooden handle at one end and an M (malefactor) at the other. Close by are two iron loops for firmly securing the hands during the operation. The brander, after examination, would turn to the judge and exclaim, “A fair mark, my lord.” Criminals were formerly ordered to hold up their hands before sentence to show if they had been previously convicted.

In the Lancaster criminal court, a branding iron is still kept in the dock. It’s a long metal rod with a wooden handle at one end and an M (for malefactor) at the other. Nearby, there are two iron loops to securely hold the hands during the process. The person branding, after examining the criminal, would turn to the judge and say, “A fair mark, my lord.” In the past, criminals were told to raise their hands before sentencing to indicate if they had been convicted before.

Cold branding or branding with cold irons became in the 18th century the mode of nominally inflicting the punishment on prisoners of higher rank. “When Charles Moritz, a young German, visited England in 1782 he was much surprised at this custom, and in his diary mentioned the case of a clergyman who had fought a duel and killed his man in Hyde Park. Found guilty of manslaughter he was burnt in the hand, if that could be called burning which was done with a cold iron” (Markham’s Ancient Punishments of Northants, 1886). Such cases led to branding becoming obsolete, and it was abolished in 1829 except in the case of deserters from the army. These were marked with the letter D, not with hot irons but by tattooing with ink or gunpowder. Notoriously bad soldiers were also branded with BC (bad character). By the British Mutiny Act of 1858 it was enacted that the court-martial, in addition to any other penalty, may order deserters to be marked on the left side, 2 in. below the armpit, with the letter D, such letter to be not less than 1 in. long. In 1879 this was abolished.

Cold branding, or using cold irons for branding, became a common way to punish higher-ranked prisoners in the 18th century. “When Charles Moritz, a young German, visited England in 1782, he was quite surprised by this practice and noted in his diary the case of a clergyman who had dueled and killed his opponent in Hyde Park. Found guilty of manslaughter, he was branded on the hand, if that could even be called branding when it was done with a cold iron” (Markham’s Ancient Punishments of Northants, 1886). Such instances led to branding falling out of use, and it was officially abolished in 1829, except for army deserters. These individuals were marked with the letter D, not with hot irons but through tattooing with ink or gunpowder. Notoriously bad soldiers were also marked with BC (bad character). According to the British Mutiny Act of 1858, it was stipulated that the court-martial could, in addition to any other punishment, order deserters to be marked on the left side, 2 inches below the armpit, with the letter D, the letter to be at least 1 inch long. This was abolished in 1879.

See W. Andrews, Old Time Punishments (Hull, 1890); A.M. Earle, Curious Punishments of Bygone Days (London, 1896).

See W. Andrews, Old Time Punishments (Hull, 1890); A.M. Earle, Curious Punishments of Bygone Days (London, 1896).


BRANDIS, CHRISTIAN AUGUST (1790-1867), German philologist and historian of philosophy, was born at Hildesheim and educated at Kiel University. In 1812 he graduated at Copenhagen, with a thesis Commentationes Eleaticae (a collection of fragments from Xenophanes, Parmenides and Melissus). For a time he studied at Göttingen, and in 1815 presented as his inaugural dissertation at Berlin his essay Von dem Begriff der Geschichte der Philosophie. In 1816 he refused an extraordinary professorship at Heidelberg in order to accompany B.G. Niebuhr to Italy as secretary to the Prussian embassy. Subsequently he assisted I. Bekker in the preparation of his edition of Aristotle. In 1821 he became professor of philosophy in the newly founded university of Bonn, and in 1823 published his Aristotelius et Theophrasti Metaphysica. With Boeckh and Niebuhr he edited the Rheinisches Museum, to which he contributed important articles on Socrates (1827, 1829). In 1836-1839 he was tutor to the young king Otho of Greece. His great work, the Handbuch der Geschichte der griechisch-röm. Philos. (1835-1866; republished in a smaller and more systematic form, Gesch. d. Entwickelungen d. griech. Philos., 1862-1866), is characterized by sound criticism. Brandis died on the 21st of July 1867.

BRANDIS, CHRISTIAN AUGUST (1790-1867), German philologist and historian of philosophy, was born in Hildesheim and educated at Kiel University. In 1812, he graduated from Copenhagen with a thesis titled Commentationes Eleaticae (a collection of fragments from Xenophanes, Parmenides, and Melissus). He studied for a time at Göttingen, and in 1815, he presented his inaugural dissertation at Berlin, an essay called Von dem Begriff der Geschichte der Philosophie. In 1816, he turned down an extraordinary professorship at Heidelberg to accompany B.G. Niebuhr to Italy as the secretary to the Prussian embassy. Later, he assisted I. Bekker in preparing his edition of Aristotle. In 1821, he became a professor of philosophy at the newly founded University of Bonn, and in 1823, he published Aristotelius et Theophrasti Metaphysica. Along with Boeckh and Niebuhr, he edited the Rheinisches Museum, to which he contributed significant articles on Socrates (1827, 1829). From 1836 to 1839, he was a tutor to the young king Otho of Greece. His major work, the Handbuch der Geschichte der griechisch-röm. Philos. (1835-1866; republished in a smaller and more systematic form as Gesch. d. Entwickelungen d. griech. Philos., 1862-1866), is marked by sound criticism. Brandis died on July 21, 1867.

See Trendelenburg, Zur Erinnerung an C. A. B. (Berlin, 1868).

See Trendelenburg, In Memory of C. A. B. (Berlin, 1868).


BRANDON, a city and port of entry of Manitoba, Canada, on the Assiniboine river, and the Canadian Pacific and Canadian Northern railways, situated 132 m. W. of Winnipeg, 1184 ft. above the sea. Pop. (1891) 3778; (1907) 12,519. It is in one of the finest agricultural sections and contains a government experimental farm, grain elevators, saw and grist mills. It was first settled in 1881, and incorporated as a city in 1882.

BRANDON, is a city and port of entry in Manitoba, Canada, located on the Assiniboine River and along the Canadian Pacific and Canadian Northern railways, about 132 miles west of Winnipeg and 1184 feet above sea level. Its population was 3,778 in 1891 and 12,519 in 1907. The city is in one of the best agricultural areas and features a government experimental farm, grain elevators, and saw and grist mills. It was first settled in 1881 and became a city in 1882.


BRANDON, a market town in the Stowmarket parliamentary division of Suffolk, England, on the Little Ouse or Brandon river, 86½ m. N.N.E. from London by the Ely-Norwich line of the Great Eastern railway. Pop. (1901) 2327. The church of St Peter is Early English with earlier portions; there is a free grammar school founded in 1646; and the town has some carrying trade by the Little Ouse in corn, coal and timber. Rabbit skins of fine texture are dressed and exported. Extensive deposits of flint are worked in the neighbourhood, and the work of the “flint-knappers” has had its counterpart here from the earliest eras of man. Close to Brandon, but in Norfolk across the river, at the village of Weeting, are the so-called Grimes’ Graves, which, long supposed to show the foundations of a British village, and probably so occupied, were proved by excavation to have been actually neolithic flint workings. The pits, though almost completely filled up (probably as they became exhausted), were sunk through the overlying chalk to the depth of 20 to 60 ft., and numbered 254 in all. Passages branched out from them, and among other remains picks of deer-horn were discovered, one actually bearing in the chalk which coated it the print of the workman’s hand.

BRANDON, is a market town in the Stowmarket parliamentary division of Suffolk, England, located on the Little Ouse or Brandon River, about 86½ miles N.N.E. from London via the Ely-Norwich line of the Great Eastern railway. The population was 2,327 in 1901. The church of St. Peter features Early English architecture alongside some older parts; there is a free grammar school established in 1646, and the town engages in some trade along the Little Ouse, dealing in corn, coal, and timber. High-quality rabbit skins are processed and exported. There are significant flint deposits worked in the area, and the skill of flint knapping has been practiced here since ancient times. Close to Brandon, but in Norfolk across the river, lies the village of Weeting, where the so-called Grimes’ Graves were long thought to be the remains of a British village. Excavations have revealed that these were actually Neolithic flint mines. The pits, which were nearly filled in as they were depleted, were dug through the underlying chalk to depths ranging from 20 to 60 feet, totaling 254 pits. Branching passages connected them, and among various artifacts, deer-horn picks were found, including one that still bore the imprint of the worker's hand in the chalk covering it.


BRANDY, an alcoholic, potable spirit, obtained by the distillation of grape wine. The frequently occurring statement that the word “brandy” is derived from the High German Branntwein is incorrect, inasmuch as the English word (as Fairley has pointed out) is quite as old as any of its continental equivalents. It is simply an abbreviation of the Old English brandewine, brand-wine or brandy wine, the word “brand” being common to all the Teutonic languages of northern Europe, meaning a thing burning or that has been burnt. John Fletcher’s Beggar’s Bush (1622) contains the passage, “Buy brand wine”; and from the Roxburgh Ballads (1650) we have “It is more fine than brandewine.” The word “brandy” came into familiar use about the middle of the 17th century, but the expression “brandywine” was retained in legal documents until 1702 (Fairley). Thus in 1697 (View Penal Laws, 173) there occurs the sentence, “No aqua vitae or brandywine shall be imported into England.” The British Pharmacopoeia formerly defined French brandy, which was the only variety mentioned (officially spiritus vini gallici), as “Spirit distilled from French wine; it has a characteristic flavour, and a light sherry colour derived from the cask in which it has been kept.” In the latest edition the Latin title spiritus vini gallici is retained, but the word French is dropped from the text, which now reads as follows: “A spirituous liquid distilled from wine and matured by age, and containing not less than 36½% by weight or 43½% by volume of ethyl hydroxide.” The United States Pharmacopoeia (1905), retains the Latin expression spiritus vini gallici (English title Brandy), defined as “an alcoholic liquid obtained by the distillation of the fermented, unmodified juice of fresh grapes.”

BRANDY, is an alcoholic beverage made by distilling grape wine. The common claim that the term “brandy” comes from the High German Branntwein is wrong, as the English word, as Fairley noted, dates back just as far as its equivalents in other languages. It’s simply a shortened form of the Old English brandewine, brand-wine, or brandy wine, with the word “brand” meaning something that is burning or has been burnt, a term shared among all the Teutonic languages in northern Europe. John Fletcher’s Beggar’s Bush (1622) includes the line, “Buy brand wine”; and from the Roxburgh Ballads (1650), we read “It is more fine than brandewine.” The word “brandy” became common around the mid-17th century, but the term “brandywine” remained in legal texts until 1702 (Fairley). For instance, in 1697 (View Penal Laws, 173), there is a statement, “No aqua vitae or brandywine shall be imported into England.” The British Pharmacopoeia used to define French brandy, which was the only type mentioned (officially spiritus vini gallici), as “A spirit distilled from French wine; it has a distinctive flavor and a light sherry color from the cask in which it has aged.” In the latest edition, the Latin title spiritus vini gallici remains, but the word French is removed, and it now reads: “A spirituous liquid distilled from wine and aged, containing no less than 36½% by weight or 43½% by volume of ethyl hydroxide.” The United States Pharmacopoeia (1905) also keeps the Latin term spiritus vini gallici (English title Brandy), defined as “an alcoholic liquid obtained by distilling the fermented, unmodified juice of fresh grapes.”

Very little of the brandy of commerce corresponds exactly to the former definition of the British Pharmacopoeia as regards colouring matter, inasmuch as trade requirements necessitate the addition of a small quantity of caramel (burnt sugar) colouring to the spirit in the majority of cases. The object of this is, as a rule, not that of deceiving the consumer as to the apparent age of the brandy, but that of keeping a standard article of commerce at a standard level of colour. It is practically impossible to do this without having recourse to caramel colouring, as, practically speaking, the contents of any cask will always differ slightly, and often very appreciably, in colour intensity from the contents of another cask, even though the age and quality of the spirits are identical.

Very little of the commercially available brandy matches the previous definition from the British Pharmacopoeia regarding coloring. This is because trade standards often require adding a small amount of caramel (burnt sugar) coloring to the spirit in most cases. The purpose of this is generally not to mislead consumers about the apparent age of the brandy but to maintain a consistent color standard for the product. It's nearly impossible to achieve this without using caramel coloring since, practically, the contents of any cask will always differ slightly, and often significantly, in color intensity from another cask, even if the age and quality of the spirits are the same.

The finest brandies are produced in a district covering an area of rather less than three million acres, situated in the departments of Charente and Charente Inférieure, of which the centre is the town of Cognac. It is generally held that only brandies produced within this district have a right to the name “cognac.” The Cognac district is separated into district zones of production, according to the quality of the spirit which each yields. In the centre of the district, on the left bank of the Charente, is the Grande Champagne, and radiating beyond it are (in order of merit of the spirit produced) the Petite Champagne, the Borderies (or Premiers Bois), the Fins Bois, the Bons Bois, the Bois Ordinaires, and finally the Bois communs dits à terroir. Many hold that the brandy produced in the two latter districts is not entitled to the name of “cognac,” but this is a matter of controversy, as 429 is also the question as to whether another district called the Grande Fine Champagne, namely, that in the immediate neighbourhood of the little village of Juillac-le-Coq, should be added to the list. The pre-eminent quality of the Cognac brandies is largely due to the character of the soil, the climate, and the scientific and systematic cultivation of the vines. For a period—from the middle ’seventies to the ’nineties of the 19th century—the cognac industry was, owing to the inroads of the phylloxera, threatened with almost total extinction, but after a lengthy series of experiments, a system of replanting and hybridizing, based on the characteristics of the soils of the various districts, was evolved, which effectually put a stop to the further progress of the disease. In 1907 the area actually planted with the vine in the Cognac district proper was about 200,000 acres, and the production of cognac brandy, which, however, varies widely in different years, may be put down at about five million gallons per annum. The latter figure is based on the amount of wine produced in the two Charentes (about forty-five million gallons in 1905).

The best brandies come from a region that spans just under three million acres, located in the Charente and Charente Inférieure departments, with Cognac as its centerpiece. It's widely accepted that only brandies made in this area can be called “cognac.” The Cognac region is divided into production zones based on the quality of the spirit each area produces. In the heart of the region, on the left bank of the Charente, is the Grande Champagne, surrounded by (in order of quality) the Petite Champagne, the Borderies (or Premiers Bois), the Fins Bois, the Bons Bois, the Bois Ordinaires, and finally the Bois communs dits à terroir. Many believe that the brandy from the last two districts isn’t worthy of the “cognac” label, but this is a contentious issue, along with the debate over whether the Grande Fine Champagne area, near the small village of Juillac-le-Coq, should be included on the list. The exceptional quality of Cognac brandies can largely be attributed to the soil, climate, and the scientific and systematic cultivation of the vines. From the mid-1870s to the 1890s, the cognac industry faced near total collapse due to phylloxera, but after a long series of experiments, a replanting and hybridization strategy was developed based on the soils of different areas, which effectively stopped the spread of the disease. In 1907, the area planted with vines in the main Cognac district was around 200,000 acres, with annual cognac production—though it varies significantly from year to year—estimated at about five million gallons. This estimate is based on the wine produced in the two Charentes, which was about forty-five million gallons in 1905.

Brandy is also manufactured in numerous other districts in France, and in general order of commercial merit may be mentioned the brandies of Armagnac, Marmande, Nantes and Anjou. The brandies commanding the lowest prices are broadly known as the Trois-Six de Monlpellier. In a class by themselves are the Eaux-de-vie de Marc, made from the wine pressings or from the solid residues of the stills. Some of these, particularly those made in Burgundy, have characteristic qualities, and are considered by many to be very fine. The consumption is chiefly local. Brandy of fair quality is also made in other wine-producing countries, particularly in Spain, and of late years colonial (Australian and Cape) brandies have attracted some attention. The comsumption of brandy in the United Kingdom amounts to about two million gallons.

Brandy is also produced in several other regions of France, and in terms of commercial value, the brandies from Armagnac, Marmande, Nantes, and Anjou are noteworthy. The brandies that are the least expensive are commonly known as the Trois-Six de Montpellier. In a category of their own are the Eaux-de-vie de Marc, made from the remnants of wine pressings or solid residues from the distillation process. Some of these, especially those produced in Burgundy, have unique qualities and are considered by many to be quite excellent. Most of this brandy is consumed locally. Fair-quality brandy is also made in other wine-producing countries, particularly in Spain, and in recent years, colonial brandies from Australia and the Cape have gained some attention. The brandy consumption in the United Kingdom is around two million gallons.

Brandy, in common with other potable spirits, owes its flavour and aroma to the presence of small quantities of substances termed secondary or by-products (sometimes “impurities”). These are dissolved in the ethyl alcohol and water which form over 99% of the spirit. The nature and quantity of all of these by-products have not yet been fully ascertained, but the knowledge in this direction is rapidly progressing. Ch. Ordonneau fractionally distilled 100 litres of 25-year-old cognac brandy, and obtained the following substances and quantities thereof:—

Brandy, like other alcoholic drinks, gets its flavor and smell from tiny amounts of substances known as secondary or by-products (sometimes called "impurities"). These are dissolved in the ethyl alcohol and water that make up over 99% of the spirit. The exact nature and amount of all these by-products haven't been completely figured out yet, but our understanding in this area is quickly advancing. Ch. Ordonneau fractionally distilled 100 liters of 25-year-old cognac brandy and obtained the following substances and their quantities:—

  Grammes in
100 Litres.
Normal propyl alcohol 40.0
Normal butyl alcohol 218.6
Amyl alcohol 83.8
Hexyl alcohol 0.6
Heptyl alcohol 1.5
Ethyl acetate 35.0
Ethyl propionate, butyrate and caproate 3.0
Oenanthic ether (about) 4.0
Aldehyde 3.0
Acetal traces
Amines traces

Most of the above substances, in fact probably all of them, excepting the oenanthic ether, are contained in other spirits, such as whisky and rum. The oenanthic ether (ethyl pelargonate) is one of the main characteristics which enable us chemically to differentiate between brandy and other distilled liquors. Brandy also contains a certain quantity of free acid, which increases with age, furfural, which decreases, and small quantities of other matters of which we have as yet little knowledge.

Most of the substances mentioned above—probably all of them except for oenanthic ether—are found in other spirits like whiskey and rum. Oenanthic ether (ethyl pelargonate) is one of the main features that allows us to chemically distinguish brandy from other distilled liquors. Brandy also has a certain amount of free acid, which increases with age, furfural, which decreases, and small amounts of other compounds that we still know very little about.

The table gives analyses, by the present author (excepting No. 3, which is by F. Lusson), of undoubtedly genuine commercial cognac brandies of various ages.

The table presents analyses by the current author (except for No. 3, which is by F. Lusson) of clearly authentic commercial cognac brandies of different ages.

Genuine Cognac Brandies.

Authentic Cognac Brandies.

(Excepting the alcohol, results are expressed in grammes per 100 litres of absolute alcohol.)

(Except for the alcohol, results are shown in grams per 100 liters of pure alcohol.)

Age, &c. Alcohol
% by vol.
Total
Acid.
Non-
volatile
Acid.
Esters. “Higher
Alcohols.”
Aldehyde. Furfural.
1. New 1904 61.7 45 5 82 125 8 2.3
2. New, still heated by steam coil 56.3 22 4 61 100 3 1.2
3. New 67.7 51 · · 158 152 6 1.3
4. Five years old, 1900 vintage 57.7 92 37 125 · · · · · ·
5. 1875 vintage, pale 46.7 144 37 177 261 55 1.0
6. 1848 vintage, brown 38.5 254 109 190 488 32 2.1

Note.—In the above table the acid is expressed in terms of acetic acid, the esters are expressed as ethyl acetate, and the aldehyde as acetaldehyde. The “Higher Alcohol” figures do not actually represent these substances, but indicate the relative coloration obtained with sulphuric acid when compared with an iso-butyl standard under certain conditions.

Note.—In the table above, the acid is represented as acetic acid, the esters are shown as ethyl acetate, and the aldehyde as acetaldehyde. The “Higher Alcohol” values don't actually reflect these substances, but rather indicate the relative coloration obtained with sulfuric acid compared to an iso-butyl standard under specific conditions.

Storage and Maturation.—Brandy is stored in specially selected oak casks, from which it extracts a certain quantity of colouring matter and tannin, &c. Commercial cognac brandies are generally blends of different growths and vintages, the blending being accomplished in large vats some little time prior to bottling. The necessary colouring and sweetening matter is added in the vat. In the case of pale brandies very little colouring and sweetening are added, the usual quantity being in the neighbourhood of ½ to 1%. Old “brown brandies,” which are nowadays not in great demand, require more caramel and sugar than do the pale varieties. The preparation of the “liqueur,” as the mixed caramel and sugar syrup is termed, is an operation requiring much experience, and the methods employed are kept strictly secret. Fine “liqueur” is prepared with high-class brandy, and is stored a number of years prior to use. Brandy, as is well known, improves very much with age (for chemical aspects of maturation see Spirits), but this only holds good when the spirit is in wood, for there is no material appreciation in quality after bottling. It is a mistake to believe, however, that brandy improves indefinitely, even when kept in wood, for, as a matter of fact, after a certain time—which varies considerably according to the type of brandy, the vintage, &c.—there is so much evaporation of alcohol that a number of undesirable changes come about. The brandy begins to “go back,” and becomes, as it is called, “worn” or “tired.” It is necessary, therefore, that the bottling should not be deferred too long. Sometimes, for trade reasons, it is necessary to keep brandy in cask for a long period, and under these conditions the practice is to keep a series of casks, which are treated as follows:—The last cask is kept filled by occasionally adding some spirit from the cask next in order, the latter is filled up by spirit taken from the third cask from the end, and so on, until the first cask in the row is reached. The latter is filled up or “topped” with some relatively fresh spirit.

Storage and Maturation.—Brandy is aged in specially chosen oak barrels, which give it some color and tannins, among other things. Commercial cognac brandies are typically blends of various types and years, and the mixing is done in large vats shortly before bottling. The necessary color and sweetening agents are added in the vat. For pale brandies, very little color and sweetening are used, usually around ½ to 1%. Older “brown brandies,” which are not as popular today, require more caramel and sugar than the pale varieties. The preparation of the “liqueur,” which is the mixed caramel and sugar syrup, is a process that needs a lot of experience, and the methods used are kept strictly confidential. High-quality “liqueur” is made with top-grade brandy and is aged for several years before being used. Brandy gets significantly better with age (for the chemical aspects of maturation see Spirits), but this is true only while the spirit is still in wood, as there is no significant quality improvement after bottling. It’s a misconception to think that brandy improves endlessly, even in wood, because after a certain period—which can vary greatly depending on the type of brandy, the vintage, etc.—there is so much evaporation of alcohol that undesirable changes occur. The brandy starts to “go back” and becomes, as it's called, “worn” or “tired.” So, it’s crucial not to delay bottling too long. Sometimes, for commercial reasons, it’s necessary to keep brandy in the barrel for a long time, and in these cases, a series of barrels are managed as follows: The last barrel is kept full by adding some spirit from the next barrel, which is then filled by spirit taken from the third barrel from the end, and so on, until reaching the first barrel in the line. The first barrel is then filled up or “topped” with relatively fresh spirit.

Brandy is much employed medicinally as a food capable of supplying energy in a particularly labile form to the body, as a stimulant, carminative, and as a hypnotic.

Brandy is commonly used medicinally as a food that can provide energy in a readily available form to the body, as a stimulant, digestive aid, and as a sleep aid.

Adulteration.—A good deal has been written about the preparation of artificial brandy by means of the addition of essential oils to potato or beetroot spirit, but it is more than doubtful whether this practice was really carried on on a large scale formerly. What undoubtedly did occur was that much beet, potato or grain spirit was used for blending with genuine grape spirit. Prosecutions under the Food and Drugs Act, by certain English local authorities in the year 1904, resulted in the practical fixation of certain chemical standards which, in the opinion of the present writer, have, owing to their arbitrary and unscientific nature, resulted in much adulteration of a type previously non-existent. There is no doubt that at the present time artificial esters and higher alcohols, &c., are being used on an extensive scale for the preparation of cheap brandies, and the position, in this respect, therefore, has not been inproved. Where formerly fraud was practically confined to the blending 430 of genuine brandy with spirit other than that derived from the grape, it is now enhanced by the addition of artificial essences to the blend of the two spirits.

Adulteration.—A lot has been said about how artificial brandy is made by adding essential oils to potato or beet spirit, but it's questionable whether this was truly done on a large scale in the past. What likely happened instead was that a lot of beet, potato, or grain spirit was mixed with real grape spirit. Actions taken under the Food and Drugs Act by some local authorities in England in 1904 led to the establishment of specific chemical standards, which, in the opinion of the current writer, have caused significant adulteration that didn’t exist before, due to their arbitrary and unscientific nature. There’s no doubt that today, artificial esters and higher alcohols, etc., are widely used to make cheap brandies, which means the situation hasn’t improved. Where fraud used to mainly involve mixing genuine brandy with spirits that weren’t grape-based, it’s now increased with the addition of artificial essences to the blend of the two spirits.

(P. S.)

BRANDYWINE, the name of a stream in Pennsylvania and Delaware, U.S.A., which runs into the Delaware river a few miles east of Wilmington, Delaware. It is famous as the scene of the battle of Brandywine in the American War of Independence, fought on the 11th of September 1777 about 10 m. north-west of Wilmington, and a few miles inside the Pennsylvania border. Sir William Howe, the British commander-in-chief, while opposed to Washington’s army in New Jersey, had formed the plan of capturing Philadelphia from the south side by a movement by sea to the head of Delaware Bay. But contrary winds and accidents delayed the British transports so long that Washington, who was at first puzzled, was able to divine his opponents’ intentions in time; and rapidly moving to the threatened point he occupied a strong entrenched position at the fords over the Brandywine, 25 m. south-west of Philadelphia. Here on the 11th of September the British attacked him. Howe’s plan, which was carefully worked out and exactly executed, was to deliver an energetic feint attack against the American front, to take a strong column 12 m. up the stream, and crossing beyond Washington’s right to attack his entrenchments in rear. Washington was successfully held in play during the movement, and General Sullivan, the commander of the American right wing, misled by the conflicting intelligence which reached him from up-stream, was surprised about noon by definite information as to the approach of Cornwallis on his right rear. Changing front “right back” in the dense country, he yet managed to oppose a stubborn resistance to the flanking attack, and with other troops that were hurried to the scene his division held its ground for a time near Birmingham meeting-house. But Howe pressed his attack sharply and drove back the Americans for 2 m.; the holding attack of the British right was converted into a real one, and by nightfall Washington was in full retreat northward toward Chester, protected by General Greene and a steady rear-guard, which held off Howe’s column for the necessary time. The British were too exhausted to pursue, and part of Howe’s force was inextricably mixed up with the advancing troops of the frontal attack. The American loss in killed, wounded and prisoners was about 1000; that of the British less than 600. Howe followed up his victory, and on the 27th of September entered Philadelphia.

BRANDYWINE, is the name of a stream in Pennsylvania and Delaware, U.S.A., that flows into the Delaware River a few miles east of Wilmington, Delaware. It's famous for being the site of the Battle of Brandywine during the American War of Independence, fought on September 11, 1777, about 10 miles northwest of Wilmington and a few miles inside the Pennsylvania border. Sir William Howe, the British commander-in-chief, was planning to capture Philadelphia from the south by moving by sea to the head of Delaware Bay while he faced Washington’s army in New Jersey. However, bad weather and delays in British transports allowed Washington, who was initially confused, to figure out his enemies’ intentions in time. He quickly moved to the threatened area and set up a strong defensive position at the fords over the Brandywine, 25 miles southwest of Philadelphia. On September 11, the British attacked him. Howe's plan, which was meticulously organized and executed, included a significant feint attack against the American front while sending a strong force 12 miles up the stream to cross beyond Washington’s right and attack his positions from behind. Washington managed to keep his forces engaged during this maneuver, but General Sullivan, who led the American right wing, was misled by conflicting reports from upstream and was caught off guard around noon by the news that Cornwallis was advancing on his right rear. Although he quickly adjusted his position in the dense terrain, he still managed to offer strong resistance to the flanking attack, and with reinforcements arriving, his division held its ground for a while near Birmingham meeting-house. However, Howe intensified his assault and pushed the Americans back for 2 miles; the British right's holding attack became a real offensive, and by nightfall, Washington was in full retreat northward toward Chester, covered by General Greene and a reliable rear-guard that kept Howe’s forces at bay just long enough. The British were too worn out to follow closely, and part of Howe’s army became mixed up with the troops advancing from the front. The American losses were around 1,000 killed, wounded, or captured, while the British casualties were fewer than 600. Howe followed up his victory and entered Philadelphia on September 27.


BRANFORD, a township, including a borough of the same name, in New Haven county, Connecticut, U.S.A., at the mouth of the Branford river and at the head of a short arm of Long Island Sound, about 7 m. E.S.E. of New Haven. Pop. of the township (1890) 4460; (1900) 5706 (1968 foreign-born);(1910) 6047; of the borough (1910) 2560. The borough is served by the New York, New Haven & Hartford railway, and by an electric line connecting with New Haven. A range of rocky hills commands fine views of the Sound, the shore is deeply indented, the harbour and bays are dotted with islands, and the harbour is deep enough for small craft, and these natural features attract many visitors during the summer season. In Branford is the James Blackstone Memorial library (1896), designed by Solon Spencer Beman (b. 1853) in the Ionic style (the details being taken from the Erechtheum at Athens). On the interior of the dome which covers the rotunda are a series of paintings by Oliver Dennett Grover (b. 1861) illustrating the evolution of book-making, and between the arches are medallion portraits, by the same artist, of New England authors—Longfellow, Emerson, Hawthorne, Lowell, Bryant, Whittier, Holmes and Mrs Stowe. The library was erected by Timothy B. Blackstone (1829-1900), a native of Branford, and president of the Chicago & Alton railway from 1864 to 1899—as a memorial to his father, a descendant of William Blackstone (d. 1675), the New England pioneer. The principal industries of Branford are the manufacture of malleable iron fittings, locks and general hardware, the quarrying of granite, and oyster culture.

BRANFORD, is a township that includes a borough of the same name, located in New Haven County, Connecticut, U.S.A., at the mouth of the Branford River and at the head of a short arm of Long Island Sound, about 7 miles E.S.E. of New Haven. The population of the township was 4,460 in 1890; 5,706 in 1900; 6,047 in 1910; and the borough had a population of 2,560 in 1910. The borough is served by the New York, New Haven & Hartford railway, as well as by an electric line that connects with New Haven. A range of rocky hills offers stunning views of the Sound, the shore is deeply indented, and the harbor and bays are dotted with islands. The harbor is deep enough for small boats, and these natural features attract many visitors during the summer. Branford is home to the James Blackstone Memorial Library (1896), designed by Solon Spencer Beman (b. 1853) in the Ionic style, with details inspired by the Erechtheum in Athens. The interior dome that covers the rotunda features a series of paintings by Oliver Dennett Grover (b. 1861) that illustrate the evolution of book-making, and between the arches are medallion portraits of New England authors—Longfellow, Emerson, Hawthorne, Lowell, Bryant, Whittier, Holmes, and Mrs. Stowe, all by the same artist. The library was built by Timothy B. Blackstone (1829-1900), a native of Branford and president of the Chicago & Alton Railway from 1864 to 1899, as a tribute to his father, a descendant of William Blackstone (d. 1675), the New England pioneer. The main industries in Branford are manufacturing malleable iron fittings, locks and general hardware, granite quarrying, and oyster farming.

The territory of Totoket (now the township of Branford) was purchased from the Indians by the New Haven Plantation, in December 1638, for eleven coats of trucking cloth and one coat of English cloth, but with the reservation for a few Indians of what is still known as Indian Neck. In 1640 the general court of New Haven granted it to the Rev. Samuel Eaton (1596?-1665), a brother of Theophilus Eaton, on condition that he brought friends from England to settle it. As Eaton went to England and did not return, Totoket was granted in 1644 to settlers mostly from Wethersfield, Conn., on condition that they should organize a church state after the New Haven model and join the New Haven Jurisdiction. The settlement was made in the same year, and about two years later several new families came from Southampton, Long Island, under the leadership of the Rev. Abraham Pierson (c. 1608-1678), an ardent advocate of the church state, who was chosen pastor at Totoket. The present name of the township, derived from Brentford, England, was adopted about 1645. After the members of the New Haven Jurisdiction had submitted to Connecticut, Pierson, in 1666-1667, led the most prominent citizens of Branford to New Jersey, where they were leaders in founding Newark. The borough of Branford was incorporated in 1893.

The area of Totoket (now known as Branford) was bought from the Native Americans by the New Haven Plantation in December 1638 for eleven coats of trading cloth and one coat of English cloth, but a few Native Americans were allowed to keep what is still called Indian Neck. In 1640, the New Haven general court granted the territory to Rev. Samuel Eaton (1596?-1665), who was Theophilus Eaton's brother, on the condition that he would bring friends from England to settle there. However, since Eaton went to England and did not come back, the land was given to settlers mostly from Wethersfield, Connecticut, in 1644, under the condition that they would form a church state modeled after New Haven and join the New Haven Jurisdiction. The settlement took place that same year, and about two years later, several new families arrived from Southampton, Long Island, led by Rev. Abraham Pierson (c. 1608-1678), a strong supporter of the church state, who became the pastor at Totoket. The current name of the township, which comes from Brentford, England, was adopted around 1645. After the New Haven Jurisdiction joined Connecticut, Pierson led many of Branford's prominent citizens to New Jersey in 1666-1667, where they played a key role in founding Newark. The borough of Branford was incorporated in 1893.

See E.C. Baldwin, Branford Annals, in Papers of New Haven Colony Historical Society (New Haven, 1882 and 1888).

See E.C. Baldwin, Branford Annals, in Papers of New Haven Colony Historical Society (New Haven, 1882 and 1888).


BRANGWYN, FRANK (1867-  ), English painter, was born at Bruges, and received his first instruction from his father, the owner of an establishment for church embroideries and kindred objects, who took a leading part in the Gothic revival under Pugin. When the family moved to England, Brangwyn attracted the attention of William Morris by a drawing on which he was engaged at South Kensington museum. He worked for some time in Morris’s studio, and then travelled more than once to the East, whereby his sense of colour and the whole further development of his art became deeply influenced. Indeed, the impressions he then received, and his love of Oriental decorative art—tiles and carpets—exercised a greater influence on him than any early training or the works of any European master. His whole tendency is essentially decorative: a colour-sense of sumptuous richness is wedded to an equally strong sense of well-balanced, harmonious design. These qualities, together with a summary suppression of the details which tie a subject to time and place, give his compositions a nobly impressive and universal character, such as may be seen in his decorative panel “Modern Commerce” in the ambulatory of the Royal Exchange, London. Among other decorative schemes executed by him are those for “L’Art nouveau” in the rue de Provence, Paris; for the hall of the Skinners’ Company, London; and for the British room at the Venice International Exhibition, 1905. The Luxembourg museum has his “Trade on the Beach”; the Venice municipal museum, the “St Simon Stylites”; the Stuttgart gallery, the “St John the Baptist”; the Munich Pinakothek, the “Assisi”; the Carnegie Institute in Pittsburg, his “Sweetmeat Seller”; the Prague gallery, his “Turkish Boatmen”; and the National Gallery of New South Wales, “The Scoffers.” Brangwyn embarked successfully in many fields of applied art, and made admirable designs for book decoration, stained glass, furniture, tapestry, metal-work and pottery. He devoted himself extensively to etching, and executed many plates of astonishing vigour and dramatic intensity. He was elected associate of the Royal Academy in 1904.

BRANGWYN, FRANK (1867-  ), English painter, was born in Bruges and got his first training from his father, who owned a business for church embroideries and similar items and played a significant role in the Gothic revival with Pugin. After the family moved to England, Brangwyn caught the attention of William Morris while working on a drawing at the South Kensington museum. He spent some time in Morris's studio and then traveled to the East several times, which had a profound impact on his sense of color and the overall evolution of his art. In fact, the experiences he gained and his appreciation for Oriental decorative art—like tiles and carpets—shaped him more than any early education or the works of any European master. His artistic approach is fundamentally decorative: a stunning richness of color is combined with a strong sense of well-balanced, harmonious design. These characteristics, along with a deliberate simplification of the details that connect a subject to a specific time and place, give his works a grand and universal quality, as seen in his decorative panel “Modern Commerce” located in the ambulatory of the Royal Exchange, London. Other decorative projects he completed include those for “L’Art nouveau” on Rue de Provence, Paris; the hall of the Skinners’ Company in London; and the British room at the Venice International Exhibition in 1905. The Luxembourg museum holds his piece “Trade on the Beach”; the Venice municipal museum features “St Simon Stylites”; the Stuttgart gallery has “St John the Baptist”; the Munich Pinakothek contains “Assisi”; the Carnegie Institute in Pittsburgh showcases his “Sweetmeat Seller”; the Prague gallery includes his “Turkish Boatmen”; and the National Gallery of New South Wales displays “The Scoffers.” Brangwyn successfully ventured into various areas of applied art, creating impressive designs for book decoration, stained glass, furniture, tapestry, metal work, and pottery. He also dedicated himself to etching, producing many plates with striking vitality and dramatic intensity. He was elected an associate of the Royal Academy in 1904.


BRANKS, (probably akin to Irish brancas, a halter; Ger. Pranger, fetter, pillory), or Scolding-Bridle, a contrivance formerly in use throughout England and Scotland for the punishment of scolding women. It is said to have originated in the latter country. It seems to have never been a legalized form of punishment; but corporations and lords of manors in England, town councils, kirk-sessions and barony courts in Scotland assumed a right to inflict it. While specially known as the “Gossip’s or Scold’s Bridle” the branks was also used for women convicted of petty offences, breaches of the peace, street-brawling and abusive language. It was the equivalent of the male punishments of the stocks and pillory. In its earliest form it consisted of a hoop head-piece of iron, opening by hinges at the side so as to enclose the head, with a flat piece of iron projecting inwards 431 so as to fit into the mouth and press the tongue down. Later it was made, by a multiplication of hoops, more like a cage, the front forming a mask of iron with holes for mouth, nose and eyes. Sometimes the mouth-plate was armed with a short spike. With this on her head the offending woman was marched through the streets by the beadle or chained to the market-cross to be gibed at by passers. The date of origin is doubtful. It was used at Edinburgh in 1567, at Glasgow in 1574, but not before the 17th century in any English town. A brank in the church of Walton-on-Thames, Surrey, bears date 1633; while another in a private collection has the crowned cipher of William III. The Ashmolean Museum at Oxford, the Scottish National Museum of Antiquities at Edinburgh, the towns of Lichfield, Shrewsbury, Leicester and Chester have examples of the brank. As late as 1856 it was in use at Bolton-le-Moors, Lancashire.

BRANKS, (likely similar to the Irish brancas, meaning halter; Ger. Pranger, meaning fetter or pillory), or Scolding bridle, was a device used in England and Scotland to punish women for scolding. It’s believed to have originated in Scotland. It never had official legal standing as a form of punishment; however, corporations, local lords, town councils, kirk-sessions, and barony courts in Scotland claimed the right to use it. Often referred to as the “Gossip’s or Scold’s Bridle,” the branks was also employed for women guilty of minor offenses, public disturbances, street fighting, and offensive speech. It was similar to the punishments for men, like the stocks and pillory. In its earliest design, it featured an iron hoop that opened on the side to enclose the head, with a flat piece of iron extending inward to fit into the mouth and press down the tongue. Later versions were constructed with multiple hoops to form more of a cage, creating an iron mask with openings for the mouth, nose, and eyes. Sometimes, the mouth-plate had a short spike. With this device on her head, the punished woman was paraded through the streets by a beadle or chained to the market-cross to be mocked by onlookers. The exact date of its creation is uncertain. It was used in Edinburgh in 1567 and in Glasgow in 1574, but not in any English town before the 17th century. A brank in the church of Walton-on-Thames, Surrey, is dated 1633, while another in a private collection features the crowned cipher of William III. The Ashmolean Museum at Oxford, the Scottish National Museum of Antiquities in Edinburgh, and the towns of Lichfield, Shrewsbury, Leicester, and Chester hold examples of the brank. As recently as 1856, it was still in use at Bolton-le-Moors, Lancashire. 431

See W. Andrews, Old Time Punishments (Hull, 1890); A.M. Earle, Curious Punishments of Bygone Days (Chicago, 1896).

See W. Andrews, Old Time Punishments (Hull, 1890); A.M. Earle, Curious Punishments of Bygone Days (Chicago, 1896).


BRANT, JOSEPH (1742-1807), American Indian chief of the Mohawk tribe, known also by his Indian name, Thayendanegea, was born on the banks of the Ohio river in 1742. In early youth he attracted the attention of Sir William Johnson, who sent him to be educated by Dr Eleazar Wheelock at Lebanon, Conn., in Moor’s Indian charity school, in which Dartmouth College had its origin. He took part, on the side of the English, in the French and Indian War, and in 1763 fought with the Iroquois against Pontiac. Subsequently he settled at Canajoharie, or Upper Mohawk Castle (in what is now Montgomery county, New York), where, being a devout churchman, he devoted himself to missionary work, and translated the Prayer Book and St Mark’s Gospel into the Mohawk tongue (1787). When Guy Johnson (1740-1788) succeeded his uncle, Sir William, as superintendent of Indian affairs in 1774, Brant became his secretary. At the outbreak of the War of Independence, he remained loyal, was commissioned colonel, and organized and led the Mohawks and other Indians allied to the British against the settlements on the New York frontier. He took part in the Cherry Valley Massacre, in the attack on Minisink and the expedition of General St Leger which resulted in the battle of Oriskany on the 6th of August 1777. After the war he discouraged the continuance of Indian warfare on the frontier, and aided the commissioners of the United States in securing treaties of peace with the Miamis and other western tribes. Settling in Upper Canada, he again devoted himself to missionary work and in 1786 visited England, where he raised funds with which was erected the first Episcopal church in Upper Canada. His character was a peculiar compound of the traits of an Indian warrior—with few rivals for daring leadership—and of a civilized politician and diplomat of the more conservative type. He died on an estate granted him by the British government on the banks of Lake Ontario on the 24th of November 1807. A monument was erected to his memory at Brantford, Ontario, Canada (named in his honour) in 1886.

BRANT, JOSEPH (1742-1807), American Indian chief of the Mohawk tribe, also known by his Indian name, Thayendanegea, was born along the banks of the Ohio River in 1742. As a young man, he caught the attention of Sir William Johnson, who sent him to be educated by Dr. Eleazar Wheelock at Lebanon, Connecticut, in Moor’s Indian charity school, which was the precursor to Dartmouth College. He participated in the French and Indian War on the side of the English and, in 1763, fought with the Iroquois against Pontiac. Later, he settled at Canajoharie, or Upper Mohawk Castle (now in Montgomery County, New York), where, as a devout churchman, he dedicated himself to missionary work, translating the Prayer Book and St. Mark’s Gospel into the Mohawk language in 1787. When Guy Johnson (1740-1788) took over from his uncle, Sir William, as the superintendent of Indian affairs in 1774, Brant became his secretary. At the start of the War of Independence, he remained loyal to the British, was commissioned as a colonel, and organized and led the Mohawks and other Indians allied with the British against settlements on the New York frontier. He participated in the Cherry Valley Massacre, the attack on Minisink, and the expedition of General St. Leger that led to the battle of Oriskany on August 6, 1777. After the war, he discouraged ongoing Indian warfare on the frontier and helped U.S. commissioners secure peace treaties with the Miamis and other western tribes. Settling in Upper Canada, he returned to missionary work and visited England in 1786, where he raised funds to build the first Episcopal church in Upper Canada. His character was a unique blend of the traits of an Indian warrior—with few rivals in daring leadership—and of a more conservative civilized politician and diplomat. He died on an estate granted to him by the British government on the shores of Lake Ontario on November 24, 1807. A monument was erected in his honor in Brantford, Ontario, Canada (named after him) in 1886.

See W.L. Stone, Life of Joseph Brant (2 vols., New York, 1838; new ed., Albany, 1865); Edward Eggleston and Elizabeth E. Seelye, Brant and Red Jacket in “Famous American Indians” (New York, 1879); and a Memoir (Brantford, 1872).

See W.L. Stone, Life of Joseph Brant (2 vols., New York, 1838; new ed., Albany, 1865); Edward Eggleston and Elizabeth E. Seelye, Brant and Red Jacket in “Famous American Indians” (New York, 1879); and a Memoir (Brantford, 1872).


BRANT, SEBASTIAN (1457-1521), German humanist and satirist, was born at Strassburg about the year 1457. He studied at Basel, took the degree of doctor of laws in 1489, and for some time held a professorship of jurisprudence there. Returning to Strassburg, he was made syndic of the town, and died on the 10th of May 1521. He first attracted attention in humanistic circles by his Latin poetry, and edited many ecclesiastical and legal works; but he is now only known by his famous satire, Das Narrenschiff(1494), a work the popularity and influence of which were not limited to Germany. Under the form of an allegory—a ship laden with fools and steered by fools to the fools’ paradise of Narragenia—Brant here lashes with unsparing vigour the weaknesses and vices of his time. Although, like most of the German humanists, essentially conservative in his religious views, Brant’s eyes were open to the abuses in the church, and the Narrenschiff was a most effective preparation for the Protestant Reformalion. Alexander Barclay’s Ship of Fools (1509) is a free imitation of the German poem, and a Latin version by Jacobus Locher (1497) was hardly less popular than the German original. There is also a large quantity of other “fool literature.” Nigel, called Wireker (fl. 1190), a monk of Christ Church Priory, Canterbury, wrote a satirical Speculum stultorum, in which the ambitious and discontented monk figured as the ass Brunellus, who wanted a longer tail. Brunellus, who has been educated at Paris, decides to found an order of fools, which shall combine the good points of all the existing monastic orders. Cock Lovell’s Bote (printed by Wynkyn de Worde, c. 1510) is another imitation of the Narrenschiff. Cock Lovell is a fraudulent currier who gathers round him a rascally collection of tradesmen. They sail off in a riotous fashion up hill and down dale throughout England. Brant’s other works, of which the chief was a version of Freidank’s Bescheidenheit (1508), are of inferior interest and importance.

BRANT, SEBASTIAN (1457-1521), a German humanist and satirist, was born in Strasbourg around 1457. He studied at Basel, earned a doctorate in law in 1489, and held a professorship in jurisprudence there for a time. After returning to Strasbourg, he became syndic of the town and died on May 10, 1521. He first gained attention in humanistic circles through his Latin poetry and edited several ecclesiastical and legal works. However, he is now best known for his famous satire, Das Narrenschiff (1494), a work whose popularity and influence extended beyond Germany. In this allegorical tale—a ship full of fools led by fools heading to the fools’ paradise of Narragenia—Brant sharply criticizes the weaknesses and vices of his time. Although, like many German humanists, he held conservative religious views, Brant recognized the abuses within the church, and Narrenschiff served as a powerful precursor to the Protestant Reformation. Alexander Barclay’s Ship of Fools (1509) is a free adaptation of the German poem, and a Latin version by Jacobus Locher (1497) was nearly as popular as the German original. Additionally, there is a significant amount of other “fool literature.” Nigel, known as Wireker (fl. 1190), a monk from Christ Church Priory, Canterbury, wrote a satirical Speculum stultorum, featuring the ambitious and discontented monk who appears as the donkey Brunellus, who longs for a longer tail. Having studied in Paris, Brunellus decides to establish an order of fools that would include the best traits of all existing monastic orders. Cock Lovell’s Bote (printed by Wynkyn de Worde, around 1510) is another imitation of the Narrenschiff. Cock Lovell is a deceitful currier who gathers a shady group of tradesmen around him. They go on a wild adventure across England, traveling up hills and down dales. Brant’s other works, the most significant being his version of Freidank’s Bescheidenheit (1508), are of lesser interest and importance.

Brant’s Narrenschiff has been edited by F. Zarncke (1854); by K. Goedeke (1872); and by F. Bobertag (Kürschner’s Deutsche Nationalliteratur, vol. xvi., 1889). A modern German translation was published by K. Simrock in 1872. On the influence of Brant in England see especially C.H. Herford, The Literary Relations of England and Germany in the 16th Century (1886).

Brant’s Narrenschiff has been edited by F. Zarncke (1854); by K. Goedeke (1872); and by F. Bobertag (Kürschner’s Deutsche Nationalliteratur, vol. xvi., 1889). A modern German translation was published by K. Simrock in 1872. For information on Brant's influence in England, see especially C.H. Herford, The Literary Relations of England and Germany in the 16th Century (1886).


BRANTFORD, a city and port of entry of Ontario, Canada, on the Grand river, and on the Grand Trunk, and Toronto, Hamilton & Buffalo railways. The river is navigable to within 2½ m. of the town; for the remaining distance a canal has been constructed. Agricultural implements, plough, engine, bicycle and stove works, potteries and large railway shops constitute the important industrial establishments. It contains an institute for the education of the blind, maintained by the provincial government, and a women’s college. The city is named in honour of the Mohawk Indian chief, Joseph Brant (Thayendanegea), who settled in the neighbourhood after the American War of Independence, in which he had led the Six Nations (Iroquois) on the British side. The amalgamated tribes of the Six Nations still make it their headquarters, and a monument to Brant has been erected in Victoria Square. Brantford is one of the most flourishing industrial towns of the province, and its population rose from 9616 in 1881 to 20,713 in 1907.

BRANTFORD, is a city and port of entry in Ontario, Canada, located on the Grand River and served by the Grand Trunk, Toronto, Hamilton & Buffalo railways. The river is navigable up to about 2½ miles from the town; a canal has been built for the remaining distance. Important industrial establishments include factories for agricultural tools, plows, engines, bicycles, stoves, potteries, and large railway shops. It also has an institute for educating the blind, funded by the provincial government, and a women's college. The city is named after the Mohawk Indian chief, Joseph Brant (Thayendanegea), who settled nearby after the American War of Independence, where he led the Six Nations (Iroquois) on the British side. The combined tribes of the Six Nations still consider it their headquarters, and a monument to Brant has been erected in Victoria Square. Brantford is one of the most thriving industrial towns in the province, and its population grew from 9,616 in 1881 to 20,713 in 1907.


BRANTINGHAM, THOMAS DE (d. 1394), English lord treasurer and bishop of Exeter, came of a Durham family. An older relative, Ralph de Brantingham, had served Edward II. and Edward III., and Thomas was made a clerk in the treasury. Edward III. obtained preferment for him in the church, and from 1361 to 1368 he was employed in France in responsible positions. He was closely associated with William of Wykeham, and while the latter was in power as chancellor, Brantingham was lord treasurer (1369-1371, and 1377-1381), being made bishop of Exeter in 1370. He continued to play a prominent part in public affairs under Richard II., and in 1389 was again lord treasurer for a few months. He died in 1394 and was buried in Exeter cathedral.

BRANTINGHAM, THOMAS DE (d. 1394), English lord treasurer and bishop of Exeter, came from a family in Durham. A relative, Ralph de Brantingham, had served Edward II and Edward III, and Thomas was appointed a clerk in the treasury. Edward III helped him gain positions in the church, and from 1361 to 1368 he worked in France in important roles. He was closely linked with William of Wykeham, and while Wykeham was in power as chancellor, Brantingham served as lord treasurer (1369-1371, and 1377-1381), becoming bishop of Exeter in 1370. He continued to be actively involved in public affairs under Richard II, and in 1389 he returned as lord treasurer for a few months. He died in 1394 and was buried in Exeter cathedral.


BRANTÔME, PIERRE DE BOURDEILLE, Seigneur and Abbé de (c. 1540-1614), French historian and biographer, was born in Périgord about 1540. He was the third son of the baron de Bourdeille. His mother and his maternal grandmother were both attached to the court of Marguerite of Valois, and at her death in 1549 he went to Paris, and later (1555) to Poitiers, to finish his education. He was given several benefices, the most important of which was the abbey of Brantôme (see below), but he had no inclination for an ecclesiastical career. At an early age he entered the profession of arms. He showed himself a brave soldier, and was brought into contact with most of the great leaders who were seeking fame or fortune in the wars that distracted the continent. He travelled much in Italy; in Scotland, where he accompanied Mary Stuart (then the widow of Francis I.); in England, where he saw Queen Elizabeth (1561, 1579); in Morocco (1564); and in Spain and Portugal. He fought on the galleys of the order of Malta, and accompanied his great friend, the French commander Philippe Strozzi (grandson of Filippo Strozzi, the Italian general, and nephew of Piero), in his expedition against Terceira, in which Strozzi was killed (1582). During the wars of religion under Charles IX. he fought in the ranks of the Catholics, but he allowed himself to be won over temporarily by the ideas of the 432 reformers, and though he publicly separated himself from Protestantism it had a marked effect on his mind. A fall from his horse compelled him to retire into private life about 1589, and he spent his last years in writing his Memoirs of the illustrious men and women whom he had known. He died on the 15th of July 1614.

BRANTÔME, PIERRE DE BOURDEILLE, Lord and Abbot of (c. 1540-1614), was a French historian and biographer, born in Périgord around 1540. He was the third son of the Baron de Bourdeille. His mother and his maternal grandmother were both connected to the court of Marguerite of Valois, and after her death in 1549, he moved to Paris, and later (1555) to Poitiers, to complete his education. He received several benefices, the most significant being the abbey of Brantôme (see below), but he had no desire for a church career. At a young age, he joined the military. He proved to be a brave soldier and interacted with many prominent leaders seeking fame or fortune in the ongoing wars across Europe. He traveled extensively in Italy; in Scotland, where he accompanied Mary Stuart (then widow of Francis I.); in England, where he met Queen Elizabeth (1561, 1579); in Morocco (1564); and in Spain and Portugal. He served on the galleys of the Order of Malta and accompanied his close friend, the French commander Philippe Strozzi (grandson of Italians Filippo Strozzi and nephew of Piero), in his expedition against Terceira, where Strozzi was killed (1582). During the religious wars under Charles IX, he fought with the Catholics, but he was temporarily swayed by the reformers' ideas, and although he publicly distanced himself from Protestantism, it had a lasting impact on his thoughts. A fall from his horse forced him into retirement around 1589, and he spent his final years writing his Memoirs of the notable people he had known. He died on July 15, 1614.

Brantôme left distinct orders that his manuscript should be printed; a first edition appeared, however, late (1665-1666) and not very complete. Of the later editions the most valuable are: one in 15 volumes (1740); another by Louis Jean Nicolas Monmerqué (1780-1860) in 8 volumes (1821-1824), reproduced in Buchan’s Panthéon littéraire; that of the Bibliothèque elzévirienne, begun (1858) by P. Mérimée and L. Lacour, and finished, with vol. xiii., only in 1893; and Lalanne’s edition for the Société de l’Histoire de France (12 vols., 1864-1896). Brantôme can hardly be regarded as a historian proper, and his Memoirs cannot be accepted as a very trustworthy source of information. But he writes in a quaint conversational way, pouring forth his thoughts, observations or facts without order or system, and with the greatest frankness and naïveté. His works certainly gave an admirable picture of the general court-life of the time, with its unblushing and undisguised profligacy. There is not a homme illustre or a dame galante in all his gallery of portraits who is not stained with vice; and yet the whole is narrated with the most complete unconsciousness that there is anything objectionable in their conduct.

Brantôme gave clear instructions for his manuscript to be published; however, the first edition came out late (1665-1666) and was not very complete. Of the later editions, the most important are: one in 15 volumes (1740); another by Louis Jean Nicolas Monmerqué (1780-1860) in 8 volumes (1821-1824), included in Buchan’s Panthéon littéraire; the Bibliothèque elzévirienne edition, started (1858) by P. Mérimée and L. Lacour, which was completed with volume xiii. only in 1893; and Lalanne’s edition for the Société de l’Histoire de France (12 vols., 1864-1896). Brantôme can hardly be considered a proper historian, and his Memoirs cannot be seen as a very reliable source of information. Yet he writes in a charming, conversational style, sharing his thoughts, observations, or facts without any real order or system, and with great honesty and simplicity. His works certainly provide an excellent depiction of the overall court life of the time, with its blatant and open debauchery. Every homme illustre or dame galante in his collection of portraits is marked by vice; and still, the entire narrative is presented with total unawareness that there is anything inappropriate about their behavior.

The edition of L. Lalanne has great merit, being the first to indicate the Spanish, Italian and French sources on which Brantôme drew, but it did not utilize all the existing MSS. It was only after Lalanne’s death that the earliest were obtained for the Bibliothèque Nationale. At Paris and at Chantilly (Musée Condé) all Brantôme’s original MSS., as revised by him several times, are now collected (see the Bibliothèque de l’école des Chartes, 1904), and a new and definitive edition has therefore become possible. Brantôme’s poems (which amount to more than 2200 verses) were first published in 1881; see Lalanne’s edition.

The edition by L. Lalanne is quite valuable, as it was the first to highlight the Spanish, Italian, and French sources that Brantôme used, but it didn't make use of all the available manuscripts. It wasn't until after Lalanne passed away that the earliest manuscripts were acquired for the Bibliothèque Nationale. Currently, all of Brantôme’s original manuscripts, which he revised multiple times, are collected in Paris and at Chantilly (Musée Condé) (see the Bibliothèque de l’école des Chartes, 1904), making a new and definitive edition possible. Brantôme's poems, which total over 2200 verses, were first published in 1881; refer to Lalanne’s edition.


BRANTÔME, a town of south-western France, in the department of Dordogne, 20 m. N. by W. of Périgueux by steam-tramway. Pop. (1906) 1230. The town is built, in great part, on an island in the river Dronne. It is well known for the remains of an abbey founded by Charlemagne about 770 and afterwards destroyed by the Normans. The oldest existing portion is a square tower dating from the 11th century, built upon a rock beside the church which it overlooks. It communicates by a staircase with the church, a rectangular building partly Romanesque, partly Gothic, to the west of which are the remains of a cloister. The abbey buildings date from the 18th century, and now serve as hôtel-de-ville, magistrature and schools. Caves in the neighbouring rocks were inhabited by the monks before the building of the abbey; one of them, used as an oratory, contains curious carvings, representing the Last Judgment and the Crucifixion. In the middle of the 16th century Pierre de Bourdeille came into possession of the abbey, from which he took the name of Brantôme.

BRANTÔME, is a town in south-western France, located in the Dordogne department, 20 miles north-west of Périgueux by steam tramway. Population (1906) was 1,230. The town is largely built on an island in the river Dronne. It is well-known for the remains of an abbey founded by Charlemagne around 770, which was later destroyed by the Normans. The oldest surviving part is a square tower from the 11th century, built on a rock next to the church it overlooks. A staircase connects it to the church, a rectangular building that is partly Romanesque and partly Gothic, with the remains of a cloister to the west. The abbey buildings, dating from the 18th century, now house the town hall, judiciary, and schools. Caves in the surrounding rocks were home to the monks before the abbey was constructed; one of these, used as an oratory, has interesting carvings depicting the Last Judgment and the Crucifixion. In the mid-16th century, Pierre de Bourdeille acquired the abbey and took the name Brantôme from it.

Brantôme has some old houses and a church of the 15th century, which was once fortified and is now used as a market. Truffles are the chief article of commerce; and there are quarries of freestone in the neighbourhood. The dolmen which is known as Pierre-Levée, to the east of the town, is the most remarkable in Périgord.

Brantôme has some old houses and a church from the 15th century, which was once fortified and is now used as a market. Truffles are the main product for trade, and there are quarries of freestone nearby. The dolmen known as Pierre-Levée, located to the east of the town, is the most notable in Périgord.


BRANXHOLM, or Branksome, a feudal castle, now modernized, and an ancient seat of the Buccleuchs, on the Teviot, 3 m. S.W. of Hawick, Roxburgh, Scotland. It was at Branksome Hall that Sir Walter Scott laid the scene of The Lay of the Last Minstrel.

BRANXHOLM, or Branksome, a feudal castle that has been modernized, and an old residence of the Buccleuchs, located on the Teviot, 3 miles southwest of Hawick, Roxburgh, Scotland. It was at Branksome Hall that Sir Walter Scott set the scene for The Lay of the Last Minstrel.


BRANXTON, or Brankston, a village of Northumberland, England, 10½ m. E. by N. of Kelso, and 2 m. E.S.E. of Coldstream, and 10 m. N.W. of Wooler. It was on Branxton Hill, immediately south of the village, that the battle of Flodden (q.v.) was fought between the English and the Scots on the 9th of September 1513. During the fight the Scots centre pushed as far as Branxton church, but “the King’s Stone,” which lies N.W. of the church and is popularly supposed to mark the spot where James IV. fell, is some three-quarters of a mile from the scene of the battle; it is believed in reality to mark the sepulchre of a chieftain, whose name had already perished in the 16th century. Branxton church, dedicated to St Paul, was rebuilt in 1849 in Norman style. Of the older building nothing remains save the chancel arch.

BRANXTON, or Brankston, is a village in Northumberland, England, located 10½ miles east by north of Kelso, 2 miles east-southeast of Coldstream, and 10 miles northwest of Wooler. It was on Branxton Hill, just south of the village, that the battle of Flodden (q.v.) took place between the English and the Scots on September 9, 1513. During the fight, the Scots’ center advanced as far as Branxton church, but “the King’s Stone,” which is located northwest of the church and is commonly thought to be the spot where James IV fell, is about three-quarters of a mile away from the battlefield; it is believed to actually mark the grave of a chieftain whose name had already been forgotten by the 16th century. Branxton church, which is dedicated to St. Paul, was rebuilt in 1849 in the Norman style. The only part of the older building that remains is the chancel arch.


BRAOSE, WILLIAM DE (d. 1211), lord of Brecknock, Radnor and Limerick, spent the early part of his life fighting the Welsh in Radnorshire. He was high in King John’s favour, received a large number of honours, and was even given the custody of Prince Arthur. But John and he quarrelled, probably over money (1207). In 1208 John began to suspect the fidelity of the whole family, and William had to fly to Ireland. After a number of attempted reconciliations, he was outlawed (1210) and died at Corbeil (1211). It is said that his wife and son were starved to death by John.

BRAOSE, WILLIAM DE (d. 1211), lord of Brecknock, Radnor, and Limerick, spent the early part of his life battling the Welsh in Radnorshire. He was in King John’s good graces, receiving many honors, and even had custody of Prince Arthur. However, John and he had a falling out, likely over money (1207). In 1208, John started to doubt the loyalty of the entire family, forcing William to flee to Ireland. After several attempts at reconciliation, he was declared an outlaw (1210) and died in Corbeil (1211). It's said that his wife and son were starved to death by John.

See Foedera, i. 107; Histoire des ducs (ed. Michel), Wendover; Kate Norgate’s John Lackland.

See Foedera, i. 107; Histoire des ducs (ed. Michel), Wendover; Kate Norgate’s John Lackland.

A descendant, William de Braose (d. 1326), lord of Gower, was a devoted follower of Edward I., and in 1299 was summoned to parliament as baron de Braose; and his nephew Thomas de Braose (d. 1361) also distinguished himself in the wars and was summoned as baron de Braose in 1342. This latter barony became extinct in 1399; but a claim to the barony of William de Braose, which, as he had no son, fell into abeyance between his two daughters and co-heirs, Alina (wife of Lord Mowbray) and Joan (wife of John de Bohun), or their descendants, may still be traced by careful genealogists in various noble English families.

A descendant, William de Braose (d. 1326), lord of Gower, was a loyal supporter of Edward I. In 1299, he was called to parliament as Baron de Braose. His nephew, Thomas de Braose (d. 1361), also made a name for himself in the wars and was summoned as Baron de Braose in 1342. This latter barony became extinct in 1399; however, a claim to the barony of William de Braose, which fell into abeyance between his two daughters and co-heirs, Alina (wife of Lord Mowbray) and Joan (wife of John de Bohun), or their descendants, can still be traced by careful genealogists in various noble English families.


BRASCASSAT, JACQUES RAYMOND (1804-1867), French painter, was born at Bordeaux, and studied art in Paris, where in 1825 he won a prix de Rome with a picture (“Chasse de Méléagre”) now in the Bordeaux gallery. He went to Italy and painted a number of landscapes which were exhibited between 1827 and 1835; but subsequently he devoted himself mainly to animal-painting, in which his reputation as an artist was made. His “Lutte de taureaux” (1837), in the musée at Nantes, and his “Vache attaquée par des loups” (1845), in the Leipzig museum, were perhaps the best of his pictures; but he was remarkable for his accuracy of observation and correct drawing. He was elected a member of the Institute in 1846. He died at Paris on the 28th of February 1867.

BRASCASSAT, JACQUES RAYMOND (1804-1867), French painter, was born in Bordeaux and studied art in Paris, where in 1825 he won a prix de Rome with a painting (“Chasse de Méléagre”) now in the Bordeaux gallery. He went to Italy and painted several landscapes that were exhibited between 1827 and 1835; however, he eventually focused mainly on animal painting, which established his reputation as an artist. His “Lutte de taureaux” (1837) in the musée at Nantes, and his “Vache attaquée par des loups” (1845) in the Leipzig museum, were perhaps his best works; he was particularly noted for his accurate observation and precise drawing. He was elected a member of the Institute in 1846. He died in Paris on February 28, 1867.


BRAS D’OR, a landlocked and tideless gulf or lake of high irregular outline, 50 m. long by 20 m. broad, almost separating Cape Breton Island (province of Nova Scotia, Canada) into two parts. A ship canal across the isthmus (about 1 m. wide) completes the severance of the island. The entrance to the gulf is on the N.E. coast of the island, and it is connected with the Atlantic by the Great and Little Bras d’Or channels, which are divided by Boulardeire Island. One channel is 25 m. long and from ¼ m. to 3 m. broad, but is of little depth, the other (used by shipping) is 22 m. long, 1 to 1½ m. wide, and has a depth of 60 fathoms. The gulf or lake is itself divided into two basins, the inner waters being known as the Great Bras d’Or Lake. The waters are generally from 12 to 60 fathoms deep, but in the outer basin (known as the Little Bras d’Or Lake) are soundings said to reach nearly 700 ft. The shores of the gulf are very picturesque and well wooded and have attracted many tourists. Sea fishing (cod, mackerel, &c.) is the chief industry. The name is said to be a corruption of an Indian word, but it assumed its present form during the French occupation of Cape Breton Island.

BRAS D’OR, is a landlocked and tideless gulf or lake with a high, irregular shape, measuring 50 m long by 20 m wide, almost splitting Cape Breton Island (in the province of Nova Scotia, Canada) into two parts. A ship canal across the isthmus (about 1 m wide) completes the separation of the island. The entrance to the gulf is on the northeast coast of the island, and it connects to the Atlantic through the Great and Little Bras d’Or channels, separated by Boulardeire Island. One channel is 25 m long and between ¼ m to 3 m wide, but it has little depth; the other (used by shipping) is 22 m long, 1 to 1½ m wide, and has a depth of 60 fathoms. The gulf or lake is itself divided into two basins, with the inner waters known as the Great Bras d’Or Lake. The waters generally range from 12 to 60 fathoms deep, but in the outer basin (known as the Little Bras d’Or Lake), it's said that soundings reach nearly 700 ft. The shores of the gulf are very picturesque and well-wooded, attracting many tourists. Sea fishing (cod, mackerel, etc.) is the main industry. The name is believed to be a corruption of an Indian word but took its current form during the French occupation of Cape Breton Island.


BRASDOR, PIERRE (1721-1799), French surgeon, was born in the province of Maine. He took his degree in Paris as master of surgery in 1752, and was appointed regius professor of anatomy and director of the Academy of Surgery. He was a skilful operator, whose name was long attached to a ligature of his invention; and he was an ardent advocate of inoculation. He died in Paris on the 28th of September 1799.

BRASDOR, PIERRE (1721-1799), a French surgeon, was born in the province of Maine. He earned his degree in Paris as a master surgeon in 1752 and was appointed the regius professor of anatomy and director of the Academy of Surgery. He was a skilled operator, and his name was long associated with a ligature he invented; he was also a passionate supporter of inoculation. He passed away in Paris on September 28, 1799.


BRASIDAS (d. 422 B.C.), a Spartan officer during the first decade of the Peloponnesian War. He was the son of Tellis and Argileonis, and won his first laurels by the relief of Methone, which was besieged by the Athenians (431 B.C.). During the 433 following year he seems to have been eponymous ephor (Xen. Hell. ii. 3, 10), and in 429 he was sent out as one of the three commissioners (σύμβουλοι) to advise the admiral Cnemus. As trierarch he distinguished himself in the assault on the Athenian position at Pylos, during which he was severely wounded (Thuc. iv. n. 12).

BRASIDAS (d. 422 B.C.), was a Spartan officer in the early years of the Peloponnesian War. He was the son of Tellis and Argileonis and earned his first honors by helping Methone, which was under siege by the Athenians in 431 BCE The following year, in 433 , he appeared to serve as the eponymous ephor (Xen. Hell. ii. 3, 10), and in 429 he was appointed as one of three commissioners (consultants) to advise Admiral Cnemus. As a trierarch, he made a name for himself during the attack on the Athenian fortifications at Pylos, where he was badly injured (Thuc. iv. n. 12).

In the next year, while Brasidas mustered a force at Corinth for a campaign in Thrace, he frustrated an Athenian attack on Megara (Thuc. iv. 70-73), and immediately afterwards marched through Thessaly at the head of 700 helots and 1000 Peloponnesian mercenaries to join the Macedonian king Perdiccas. Refusing to be made a tool for the furtherance of Perdiccas’s ambitions, Brasidas set about the accomplishment of his main object, and, partly by the rapidity and boldness of his movements, partly by his personal charm and the moderation of his demands, succeeded during the course of the winter in winning over the important cities of Acanthus, Stagirus, Amphipolis and Torone as well as a number of minor towns. An attack on Eion was foiled by the arrival of Thucydides, the historian, at the head of an Athenian squadron. In the spring of 423 a truce was concluded between Athens and Sparta, but its operation was at once imperilled by Brasidas’s refusal to give up Scione, which, the Athenian partisans declared, revolted two days after the truce began, and by his occupation of Mende shortly afterwards. An Athenian fleet under Nicias and Nicostratus recovered Mende and blockaded Scione, which fell two years later (421 B.C.). Meanwhile Brasidas joined Perdiccas in a campaign against Arrhabaeus, king of the Lyncesti, who was severely defeated. On the approach of a body of Illyrians, who, though summoned by Perdiccas, unexpectedly declared for Arrhabaeus, the Macedonians fled, and Brasidas’s force was rescued from a critical position only by his coolness and ability. This brought to a head the quarrel between Brasidas and Perdiccas, who promptly concluded a treaty with Athens, of which some fragments have survived (I.G. i. 42).

In the following year, while Brasidas gathered troops at Corinth for a campaign in Thrace, he thwarted an Athenian attack on Megara (Thuc. iv. 70-73). Right after that, he marched through Thessaly leading 700 helots and 1,000 Peloponnesian mercenaries to join the Macedonian king Perdiccas. Refusing to be used for Perdiccas’s ambitions, Brasidas focused on achieving his main goal. Through the speed and boldness of his movements, along with his personal charm and reasonable demands, he succeeded throughout the winter in winning over the important cities of Acanthus, Stagirus, Amphipolis, and Torone, as well as several smaller towns. An attack on Eion was interrupted by the arrival of Thucydides, the historian, who led an Athenian squadron. In the spring of 423, a truce was established between Athens and Sparta, but it was immediately threatened by Brasidas’s refusal to surrender Scione, which Athenian supporters claimed rebelled two days after the truce began, and by his occupation of Mende shortly after that. An Athenian fleet under Nicias and Nicostratus recaptured Mende and blockaded Scione, which fell two years later (421 BCE). In the meantime, Brasidas joined Perdiccas in a campaign against Arrhabaeus, the king of the Lyncesti, who was soundly defeated. When a group of Illyrians, unexpectedly declaring support for Arrhabaeus despite being summoned by Perdiccas, approached, the Macedonians fled. Brasidas’s skill and composure saved his force from a tricky situation. This led to a serious dispute between Brasidas and Perdiccas, who quickly formed a treaty with Athens, of which some fragments have survived (I.G. i. 42).

In April 422 the truce with Sparta expired, and in the same summer Cleon was despatched to Thrace, where he stormed Torone and Galepsus and prepared for an attack on Amphipolis. But a carelessly conducted reconnaissance gave Brasidas the opportunity for a vigorous and successful sally. The Athenian army was routed with a loss of 600 men and Cleon was slain. On the Spartan side only seven men are said to have fallen, but amongst them was Brasidas. He was buried at Amphipolis with impressive pomp, and for the future was regarded as the founder (οἰκιστής) of the city and honoured with yearly games and sacrifices (Thuc. iv. 78-v. 11). At Sparta a cenotaph was erected in his memory near the tombs of Pausanias and Leonidas, and yearly speeches were made and games celebrated in their honour, in which only Spartiates could compete (Paus. in. 14).

In April 422, the truce with Sparta ended, and that summer, Cleon was sent to Thrace, where he attacked Torone and Galepsus and got ready to assault Amphipolis. However, a poorly executed reconnaissance gave Brasidas the chance to launch a strong and successful counter-attack. The Athenian army was defeated, losing 600 men, and Cleon was killed. On the Spartan side, only seven men reportedly died, but one of them was Brasidas. He was buried in Amphipolis with great ceremony and was later regarded as the founder (settler) of the city, honored with annual games and sacrifices (Thuc. iv. 78-v. 11). In Sparta, a cenotaph was built in his memory near the tombs of Pausanias and Leonidas, where yearly speeches were given and games were held in their honor, open only to Spartiates (Paus. in. 14).

Brasidas united in himself the personal courage characteristic of Sparta with those virtues in which the typical Spartan was most signally lacking. He was quick in forming his plans and carried them out without delay or hesitation. With an oratorical power rare amongst the Lacedaemonians he combined a conciliatory manner which everywhere won friends for himself and for Sparta (Thuc. iv. 81).

Brasidas combined the personal bravery typical of Sparta with qualities that most Spartans notably lacked. He was quick to come up with his plans and executed them without delay or hesitation. With oratory skills that were uncommon among the Lacedaemonians, he also had a friendly demeanor that earned him friends for himself and for Sparta (Thuc. iv. 81).

See in particular Thucydides, ii.-v.; what Diodorus xii. adds is mainly oratorical elaboration or pure invention. A fuller account will be found in the histories of Greece (e.g. those of Grote, Beloch, Busolt, Meyer) and in G. Schimmelpfeng, De Brasidae Spartani rebus gestis atque ingenio (Marburg, 1857).

See especially Thucydides, ii.-v.; what Diodorus xii. adds is mostly rhetorical embellishment or complete fabrication. A more detailed account can be found in the histories of Greece (e.g. those by Grote, Beloch, Busolt, Meyer) and in G. Schimmelpfeng, De Brasidae Spartani rebus gestis atque ingenio (Marburg, 1857).


BRASS, a river, town and district of southern Nigeria, British West Africa. The Brass river is one of the deltaic branches of the Niger, lying east of the Rio Nun or main channel of the river. From the point of divergence from the main stream to the sea the Brass has a course of about 100 m., its mouth being in 6° 20′ E., 4° 35′ N. Brass town is a flourishing trading settlement at the mouth of the river. It is the headquarters of a district commissioner and the seat of a native court. Its most conspicuous building is a fine church, the gift of a native chief. The capital of the Brass tribes is Nimbé, 30 m. up river.

BRASS is a river, town, and district in southern Nigeria, British West Africa. The Brass River is one of the delta branches of the Niger, located east of the Rio Nun or the main channel of the river. From where it branches off from the main stream to the sea, the Brass River runs for about 100 miles, with its mouth at 6° 20′ E., 4° 35′ N. Brass Town is a thriving trading settlement at the river’s mouth. It serves as the headquarters for a district commissioner and hosts a native court. The town's most prominent building is a beautiful church, gifted by a local chief. The capital of the Brass tribes is Nimbé, which is 30 miles upstream.

The Brass river, called by its Portuguese discoverers the Rio Bento, is said to have received its English name from the brass rods and other brass utensils imported by the early traders in exchange for palm-oil and slaves. The Brass natives, of the pure negro type, were noted for their savage character. In 1856 their chiefs concluded a treaty with Great Britain agreeing to give up the slave-trade in exchange for a duty on the palm-oil exported. Finding their profitable business as middlemen between the up-river producer and the exporter threatened by the appearance of European traders, they made ineffective complaints to the British authorities. The establishment of the Royal Niger Company led to further loss of trade, and on the 29th of January 1895 the natives attacked and sacked the company’s station at Akassa on the Rio Nun, over forty prisoners being killed and eaten as a sacrifice to the fetish gods. In the following month a punitive expedition partially destroyed Nimbé, and a heavy fine was paid by the Brass chiefs. Since then the country has settled down under British administration. The trade regulations of which complaint had been made were removed in 1900 on the establishment of the protectorate of Southern Nigeria (see Nigeria).

The Brass River, known as Rio Bento by its Portuguese discoverers, is believed to have gotten its English name from the brass rods and utensils that early traders imported in exchange for palm oil and slaves. The Brass natives, who are of pure African descent, were known for their fierce nature. In 1856, their chiefs signed a treaty with Great Britain, agreeing to end the slave trade in return for a tax on palm oil exports. When European traders threatened their profitable role as middlemen between regional producers and exporters, they made unproductive complaints to British officials. The formation of the Royal Niger Company further diminished their trade, and on January 29, 1895, the locals attacked and looted the company’s station at Akassa on the Rio Nun, resulting in the deaths and sacrifices of over forty prisoners to their fetish gods. The following month, a punitive mission partially destroyed Nimbé, and the Brass chiefs had to pay a heavy fine. Since then, the region has come under British administration. The trade regulations they had complained about were lifted in 1900 with the establishment of the protectorate of Southern Nigeria (see Nigeria).

Valuable information concerning the country and people will be found in the Report by Sir John Kirk on the Disturbances at Brass (Africa, No. 3, 1896).

Valuable information about the country and its people can be found in the Report by Sir John Kirk on the Disturbances at Brass (Africa), No. 3, 1896.


BRASS (O. Eng. braes), an alloy consisting mainly if not exclusively of copper and zinc; in its older use the term was applied rather to alloys of copper and tin, now known as bronze (q.v.)Thus the brass of the Bible was probably bronze, and so also was much of the brass of later times, until the distinction between zinc and tin became clearly recognized. The Latin word aes signifies either pure copper or bronze, not brass, but the Romans comprehended a brass compound of copper and zinc under the term orichalcum or aurichalcum, into which Pliny states that copper was converted by the aid of cadmia (a mineral of zinc).

BRASS (Old English braes), an alloy primarily made of copper and zinc; historically, the term referred more to alloys of copper and tin, now known as bronze (q.v.). So, the brass mentioned in the Bible was likely bronze, and much of the brass from later periods was also that, until the difference between zinc and tin was clearly understood. The Latin word aes refers to either pure copper or bronze, not brass, but the Romans referred to a brass mixture of copper and zinc as orichalcum or aurichalcum, which Pliny noted was created from copper with the help of cadmia (a zinc mineral).

In England there is good evidence of the manufacture of brass with zinc at the end of the 16th century, for Queen Elizabeth by patent granted to William Humfrey and Christopher Schutz the exclusive right of working calamine and making brass. This right subsequently devolved upon a body called the “Governors, Assistants and Societies of the City of London of and for the Mineral and Battery Works,” which continued to exercise its functions down to the year 1710.

In England, there is strong evidence that brass was being made with zinc by the end of the 16th century. Queen Elizabeth granted a patent to William Humfrey and Christopher Schutz, giving them the exclusive right to work with calamine and produce brass. This right later passed to a group known as the “Governors, Assistants and Societies of the City of London of and for the Mineral and Battery Works,” which continued its operations until the year 1710.

When a small percentage of zinc is present, the colour of brass is reddish, as in tombac or red brass, which contains about 10%. With about 20% the colour becomes more yellow, and a series of metals is obtained which simulate gold more or less closely; such are Dutch metal, Mannheim gold, similar and pinchbeck, the last deriving its name from a London clockmaker, Christopher Pinchbeck, who invented it in 1732. Ordinary brass contains about 30% of zinc, and when 40% is present, as in Muntz, yellow or patent metal (invented by G.F. Muntz in 1832), the colour becomes a full yellow. When the proportion of zinc is largely increased the colour becomes silver-white and finally grey. The limit of elasticity increases with the percentage of zinc, as also does the amount of elongation before fracture, the maximum occurring with 30%. The tenacity increases with the proportion of zinc up to a maximum with 45%; then it decreases rapidly, and with 50% the metals are fragile. By varying the proportion between 30 and 43% a series of alloys may be prepared presenting very varied properties. The most malleable of the series has an elongation of about 60%, with a tensile strength of 17.5 tons per sq. in. Increase in the proportion of zinc gives higher tensile strength, accompanied, however, by a smaller percentage of elongation and a materially increased tendency to produce unsound castings. The quality of copper-zinc alloys is improved by the addition of a small quantity of iron, a fact of which advantage is taken in the production of Aich’s metal and delta metal. Of the latter there are several varieties, modified in composition to suit different purposes. Some of them possess high tensile strength and ductility. They are remarkably resistant to corrosion by sea-water, and are well suited for screw-propellers as well as for pump-plungers, pistons and glands. Heated to a dull red delta metal becomes malleable 434 and can be worked under the hammer, press or stamps. By such treatment an ultimate tensile strength of 30 tons per sq. in. may be obtained, with an elongation of 32% in 2 in. and a contraction of area of 30%.

When a small amount of zinc is added, brass takes on a reddish color, similar to tombac or red brass, which has about 10% zinc. With around 20%, the color shifts to a more yellow hue, resulting in a range of metals that closely mimic gold, such as Dutch metal, Mannheim gold, and pinchbeck, the latter named after the London clockmaker Christopher Pinchbeck, who created it in 1732. Regular brass typically contains about 30% zinc, and with 40%, as seen in Muntz, yellow or patent metal (developed by G.F. Muntz in 1832), the color becomes a bright yellow. Increasing the zinc content further leads to a silver-white color and eventually grey. The elasticity limit rises with the percentage of zinc, as does the ability to stretch before breaking, peaking at 30%. The strength also increases with zinc content, maxing out at 45%; beyond that, it drops quickly, and with 50%, the metals become brittle. By adjusting the zinc content between 30% and 43%, a range of alloys can be produced with diverse properties. The most malleable of these has about 60% elongation and a tensile strength of 17.5 tons per square inch. Increasing the zinc proportion improves tensile strength but reduces the elongation percentage and increases the likelihood of producing unsound castings. Adding a small amount of iron enhances the quality of copper-zinc alloys, which is utilized in the creation of Aich’s metal and delta metal. There are various types of delta metal, altered in composition for different applications. Some exhibit high tensile strength and ductility. They are exceptionally resistant to corrosion from seawater, making them ideal for screw-propellers, pump plungers, pistons, and glands. When heated to a dull red, delta metal becomes malleable and can be shaped using a hammer, press, or stamps. Through this process, it can achieve an ultimate tensile strength of 30 tons per square inch, with an elongation of 32% over 2 inches and a contraction of area of 30%. 434

In the arts brass is a most important and widely used alloy. As compared with copper its superior hardness makes it wear better, while being more fusible it can be cast with greater facility. It is readily drawn into fine wire, and formed into rolled sheets and rods which are machined into a huge number of useful and ornamental articles. It is susceptible of a fine polish, but tarnishes with exposure to the air; the brilliancy of the surface can, however, be preserved if the metal is thoroughly cleansed by “dipping” in nitric acid and “lacquered” with a coating of varnish consisting of seed-lac dissolved in spirit.

In the arts, brass is a highly important and widely used alloy. Compared to copper, it’s harder and wears better, while being more meltable, making it easier to cast. It can be drawn into very thin wire and shaped into rolled sheets and rods that are made into a wide range of useful and decorative items. Brass can be polished to a high shine, but it tarnishes when exposed to air; however, the shine can be maintained if the metal is thoroughly cleaned by soaking in nitric acid and then coated with a varnish made from seed-lac dissolved in spirit.


BRASSES, MONUMENTAL, a species of engraved sepulchral memorials which in the early part of the 13th century began to take the place of tombs and effigies carved in stone. Made of hard latten or sheet brass, let into the pavement, and thus forming no obstruction in the space required for the services of the church, they speedily came into general use, and continued to be a favourite style of sepulchral memorial for three centuries. Besides their great value as historical monuments, they are interesting as authentic contemporary evidence of the varieties of armour and costume, or the peculiarities of palaeography and heraldic designs, and they are often the only authoritative records of the intricate details of family history. Although the intrinsic value of the metal has unfortunately contributed to the wholesale spoliation of these interesting monuments, they are still found in remarkable profusion in England, and they were at one time equally common in France, Germany and the Low Countries. In France, however, those that survived the troubles of the 16th century were totally swept away during the reign of terror, and almost the only evidence of their existence is now supplied by the collection of drawings bequeathed by Gough to the Bodleian library. The fine memorials of the royal house of Saxony in the cathedrals of Meissen and Freiberg are the most artistic and striking brasses in Germany. Among the 13th-century examples existing in German churches are the full-length memorials of Yso von Welpe, bishop of Verden (1231), and of Bernard, bishop of Paderborn (1340). Many fine Flemish specimens exist in Belgium, especially at Bruges. Only two or three examples, and these of late date, are known in Scotland, among which are the memorials of Alexander Cockburn (1564) at Ormiston; of the regent Murray (1569) in the collegiate church of St Giles, Edinburgh; and of the Minto family (1605) in the south aisle of the nave of Glasgow cathedral. England is the only country which now possesses an extensive series of these interesting memorials, of which it is calculated that there may be about 4000 still remaining in the various churches. They are most abundant in the eastern counties, and this fact has been frequently adduced in support of the opinion that they were of Flemish manufacture. But in the days when sepulchral brasses were most in fashion the eastern counties of England were full of commercial activity and wealth, and nowhere do the engraved memorials of civilians and prosperous merchants more abound than in the churches of Ipswich, Norwich, Lynn and Lincoln. Flemish brasses do occur in England, but they were never numerous, and they are readily distinguished from those of native workmanship. The Flemish examples have the figures engraved in the centre of a large plate, the background filled in with diapered or scroll work, and the inscription placed round the edge of the plate. The English examples have the figures cut out to the outline and inserted in corresponding cavities in the slab, the darker colour of the stone serving as a background. This is not an invariable distinction, however, as “figure-brasses” of Flemish origin are found both at Bruges and in England. But the character of the engraving is constant, the Flemish work being more florid in design, the lines shallower, and the broad lines cut with a chisel-pointed tool instead of the lozenge-shaped burin. The brass of Robert Hallum, bishop of Salisbury, the envoy of Henry V. to the council of Constance, who died and was interred there in 1416, precisely resembles the brasses of England in the peculiarities which distinguish them from continental specimens. Scarcely any of the brasses which now exist in England can be confidently referred to the first half of the 13th century, though several undoubted examples of this period are on record. The full-sized brass of Sir John d’Aubernon at Stoke d’Abernon in Surrey (c. 1277) has the decorations of the shield filled in with a species of enamel. Other examples of this occur, and the probability is, that, in most cases, the lines of the engraving were filled with colouring-matter, though brass would scarcely bear the heat requisite to fuse the ordinary enamels. A well-known 13th-century example is that of Sir Roger de Trumpington (c. 1290), who accompanied Prince Edward in his expedition to Palestine and is represented cross-legged. About half a dozen instances of this peculiarity are known. The 14th-century brasses are much more numerous, and present a remarkable variety in their details. The finest specimen is that of Nicholas Lord Burnell (1315) in the church of Acton Burnell, Shropshire. In the 15th century the design and execution of monumental brasses had attained their highest excellence. The beautiful brass of Thomas Beauchamp, earl of Warwick (d. 1401), and his wife Margaret, which formerly covered the tomb in St Mary’s church, Warwick, is a striking example. One of the best specimens of plate armour is that of Sir Robert Stantoun (1458) in Castle Donnington church, Leicestershire, and one of the finest existing brasses of ecclesiastics is that of Abbot de la Mare of St Albans. It is only in the 16th century that the engraved representations become portraits. Previous to that period the features were invariably represented conventionally, though sometimes personal peculiarities were given. A large number of brasses in England are palimpsests, the back of an ancient brass having been engraved for the more recent memorial. Thus a brass commemorative of Margaret Bulstrode (1540) at Hedgerley, on being removed from its position, was discovered to have been previously the memorial of Thomas Totyngton, abbot of St Edmunds, Bury (1312). The abbey was only surrendered to Henry VIII. in 1539, so that before the year was out the work of spoliation had begun, and the abbot’s brass had been removed and re-engraved to Margaret Bulstrode. In explanation of the frequency with which ancient brasses have thus been stolen and re-erected after being engraved on the reverse, as at Berkhampstead, it may be remarked that all the sheet brass used in England previous to the establishment of a manufactory at Esher by a German in 1649, had to be imported from the continent.

MONUMENTAL BRASSES, are a type of engraved memorials that started to replace stone tombs and effigies in the early 13th century. Made of hard latten or sheet brass, they were set into the pavement, causing no obstruction for church services. They quickly became widely used and remained a popular style of memorial for three centuries. In addition to their historical value, they offer authentic contemporary evidence of different types of armor and clothing, as well as unique features of writing and heraldic designs, often serving as the only reliable records of detailed family histories. Although the metal's inherent value has led to the widespread theft of these fascinating monuments, they can still be found in abundance in England, and they were once common in France, Germany, and the Low Countries. However, in France, the remaining examples from the 16th century were destroyed during the Reign of Terror, and today, the only evidence of their existence comes from a collection of drawings left by Gough to the Bodleian library. The beautiful memorials of the royal house of Saxony in the cathedrals of Meissen and Freiberg are the most artistic and notable brasses in Germany. Among the 13th-century examples in German churches are the full-length memorials of Yso von Welpe, bishop of Verden (1231), and of Bernard, bishop of Paderborn (1340). Many fine Flemish examples exist in Belgium, especially in Bruges. Only two or three examples known in Scotland are of later dates, including the memorials of Alexander Cockburn (1564) at Ormiston; of regent Murray (1569) in the collegiate church of St Giles, Edinburgh; and of the Minto family (1605) in the south aisle of Glasgow cathedral. England is the only country that currently has a large collection of these interesting memorials, with an estimated 4,000 still remaining in various churches. They are most abundant in the eastern counties, which has often been cited as evidence that they were manufactured in Flanders. However, at the time when sepulchral brasses were most popular, the eastern counties of England were thriving with commerce and wealth, and nowhere are the engraved memorials of civilians and successful merchants more numerous than in the churches of Ipswich, Norwich, Lynn, and Lincoln. Flemish brasses do appear in England but were never very common, and they can easily be distinguished from locally made ones. Flemish examples typically have figures engraved on a large plate, with a background covered in patterned or scrollwork, and the inscription around the edge. In contrast, English examples have the figures cut out to the outline and inserted into matching cavities in the slab, with the darker stone serving as the background. This is not a strict rule, though, as "figure-brasses" of Flemish origin can be found both in Bruges and England. However, the style of engraving remains consistent, with Flemish work being more intricate, featuring shallower lines and broader lines cut with a chisel-pointed tool instead of the lozenge-shaped burin. The brass for Robert Hallum, bishop of Salisbury and envoy of Henry V to the council of Constance, who died and was buried there in 1416, closely resembles English brasses in the specific characteristics that set them apart from continental examples. Few of the brasses currently in England can confidently be traced back to the first half of the 13th century, although several known examples from this period are recorded. The full-sized brass of Sir John d’Aubernon at Stoke d’Abernon in Surrey (circa 1277) features decorations on the shield filled with a type of enamel. Such instances do occur, and it is likely that in most cases, the engraving lines were filled with coloring, although brass would likely not withstand the heat needed to melt standard enamels. A well-known 13th-century example is that of Sir Roger de Trumpington (circa 1290), who accompanied Prince Edward on his expedition to Palestine and is depicted cross-legged. About half a dozen cases of this unique feature are known. The 14th-century brasses are much more numerous and show a remarkable range of details. The finest example is that of Nicholas Lord Burnell (1315) in the church of Acton Burnell, Shropshire. By the 15th century, the design and execution of monumental brasses reached their highest quality. The beautiful brass of Thomas Beauchamp, earl of Warwick (d. 1401), and his wife Margaret, which used to cover the tomb in St Mary’s church, Warwick, is a striking example. One of the best specimens of plate armor is that of Sir Robert Stantoun (1458) in Castle Donnington church, Leicestershire, and one of the finest existing brasses of ecclesiastics is that of Abbot de la Mare of St Albans. It’s only in the 16th century that the engravings shift to become true portraits. Before this period, the features were always depicted in a conventional style, though sometimes personal traits were included. Many brasses in England are palimpsests, where the back of an ancient brass has been re-engraved for a more recent memorial. For example, a brass commemorating Margaret Bulstrode (1540) at Hedgerley, when removed, was found to have previously been the memorial of Thomas Totyngton, abbot of St Edmunds, Bury (1312). The abbey was only surrendered to Henry VIII in 1539, so by the end of that year, the looting had begun, and the abbot’s brass was taken and re-engraved for Margaret Bulstrode. To explain the frequent cases of ancient brasses being stolen and then re-used after engraving on the back, like at Berkhampstead, it should be noted that all the sheet brass used in England before a German established a factory at Esher in 1649 had to be imported from the continent.

Plate I.

Plate I.

Fig. 1.—Sir John D’Abernon, 1277.
Stoke D’Abernon Surrey.
Fig. 2.—Margaret de Camoys. 1310.
Trotton, Sussex.
Fig. 3.—Henry de Grofhurst, c. 1330
Horsemonden, Kent.
Fig. 4.—Sir Nicholas Burnell, 1382.
Acton Burnell, Shropshire.
Fig. 5.—Margaret Lady Cobham,
1385. Cobham, Kent.
Fig. 6.—Sir John Corp and Eleanor, his grand-daughter
1391, 1361. Stoke Fleming, Devonshire.
Fig. 7.—Sir Symon de Felbrigge and Margaret his wife,
1400. Felbrigge, Norfolk.
 
Figs. 1 and 6 from Waller’s Monumental Brasses. Figs. 5 and 7 from Boutell’s Monumental Brasses. Figs. 2, 3, and 4 by permission of the Monumental Brass Society.

Plate II.

Plate 2.

Fig. 1.—Thomas de Beauchamp, Earl of Warwick and Lady,
1406 and 1401. St. Mary’s Church, Warwick.
Fig. 2.—Thomas Cranley, Archbishop of Dublin,
1417. New College, Oxford.
Fig. 3.—Sir William Vernon and Lady, 1467.
Tong Church, Shropshire.
Fig. 4.—John Shelley, Esq., 1526, and his wife Elizabeth, 1513.
Clapham, Sussex.
Fig. 5.—Dame Margaret Chute, 1614.
Mardon, Herefordshire.
Fig. 6.—Sir Edward Filmer and Lady, 1638.
East Sutton, Kent.

 

Figs. 1, 2, 3, and 6 from Waller’s Monumental Brasses. Figs. 4 and 5 by permission of the Monumental Brass Society.

Authorities.—(1) General: Manual for the Study of Monumental Brasses (Oxford, 1848); Boutell’s Monumental Brasses of England, engravings on wood, folio (London, 1849); Manual of Monumental Brasses, by H. Haines (2 vols. 8vo, 1861); Waller’s Series of Monumental Brasses in England (London and Oxford, Parkers, 1863); Monumental Brasses, by H.W. Macklin (8vo, 1890); The Brasses of England, by H.W. Macklin (8vo, London, 1907). (2) English Counties: Cotman’s Engravings of the most Remarkable of the Sepulchral Brasses of Norfolk (4to, London, 1813-1816); and second edition, with plates and notes by Meyrick, Albert Way and Sir Harris Nicholas (2 vols. folio, London, 1839); Illustrations of Monumental Brasses in Cambridge (4to, Camden Society, 1846); Monumental Brasses of Northamptonshire, by F. Hudson (folio, 1853); The Monumental Brasses of Wiltshire, by G. Kite (8vo, London, 1860); Architectural and Historical Notes of the Churches of Cambridgeshire, by A.C. Hill (8vo, 1880); Monumental Brasses of Cornwall, by E.H.W. Dunken (4to, London, 1882); Monumental Brasses of Worcestershire and Herefordshire, ed. by C.T. Davis (1884); Kentish Brasses, by W.D. Belcher (4to, London, 1888); List of Monumental Brasses in the County of Norfolk, by the Rev. E. Farrer (Norwich, 1890); The Monumental Brasses of Lancashire and Cheshire, by James Thornby (8vo, Hull, 1893); Monumental Brasses in the Bedfordshire Churches, by Grace Isherwood (8vo, London, 1906), a large collection of rubbings of special interest and value. (3) Foreign: Monumental Brasses and Incised Slabs in Belgium (8vo, 1849); Books of Facsimiles of Monumental Brasses of the Continent of Europe, folio (1884), by the Rev. W.F. Greeny.

Authorities.—(1) General: Manual for the Study of Monumental Brasses (Oxford, 1848); Boutell’s Monumental Brasses of England, wood engravings, folio (London, 1849); Manual of Monumental Brasses by H. Haines (2 vols. 8vo, 1861); Waller’s Series of Monumental Brasses in England (London and Oxford, Parkers, 1863); Monumental Brasses by H.W. Macklin (8vo, 1890); The Brasses of England by H.W. Macklin (8vo, London, 1907). (2) English Counties: Cotman’s Engravings of the Most Remarkable Sepulchral Brasses of Norfolk (4to, London, 1813-1816); and the second edition, with plates and notes by Meyrick, Albert Way, and Sir Harris Nicholas (2 vols. folio, London, 1839); Illustrations of Monumental Brasses in Cambridge (4to, Camden Society, 1846); Monumental Brasses of Northamptonshire by F. Hudson (folio, 1853); The Monumental Brasses of Wiltshire by G. Kite (8vo, London, 1860); Architectural and Historical Notes of the Churches of Cambridgeshire by A.C. Hill (8vo, 1880); Monumental Brasses of Cornwall by E.H.W. Dunken (4to, London, 1882); Monumental Brasses of Worcestershire and Herefordshire, ed. by C.T. Davis (1884); Kentish Brasses by W.D. Belcher (4to, London, 1888); List of Monumental Brasses in the County of Norfolk by the Rev. E. Farrer (Norwich, 1890); The Monumental Brasses of Lancashire and Cheshire by James Thornby (8vo, Hull, 1893); Monumental Brasses in the Bedfordshire Churches by Grace Isherwood (8vo, London, 1906), a large collection of rubbings that is of special interest and value. (3) Foreign: Monumental Brasses and Incised Slabs in Belgium (8vo, 1849); Books of Facsimiles of Monumental Brasses of the Continent of Europe, folio (1884) by the Rev. W.F. Greeny.


BRASSEUR DE BOURBOURG, CHARLES ÉTIENNE (1814-1874), Belgian ethnographer, was born at Bourbourg, near Dunkirk, on the 8th of September 1814. He entered the Roman Catholic priesthood, was professor of ecclesiastical history in the Quebec seminary in 1845, vicar-general at Boston in 1846, and from 1848 to 1863 travelled as a missionary, chiefly in Mexico 435 and Central America. He gave great attention to Mexican antiquities, published in 1857-1859 a history of Aztec civilization, and from 1861 to 1864 edited a collection of documents in the indigenous languages. In 1863 he announced the discovery of a key to Mexican hieroglyphic writing, but its value is very questionable. In 1864 he was archaeologist to the French military expedition in Mexico, and his Monuments anciens du Mexique was published by the French Government in 1866. Perhaps his greatest service was the publication in 1861 of a French translation of the Popol Vuh, a sacred book of the Quiché Indians, together with a Quiché grammar, and an essay on Central American mythology. In 1871 he brought out his Bibliothèque Mexico-Guatemalienne, and in 1869-1870 gave the principles of his decipherment of Indian picture-writing in his Manuscrit Troano, études sur le système graphique et la langue des Mayas. He died at Nice on the 8th of January 1874. His chief merit is his diligent collection of materials; his interpretations are generally fanciful.

BRASSEUR DE BOURBOURG, CHARLES ÉTIENNE (1814-1874), Belgian ethnographer, was born in Bourbourg, near Dunkirk, on September 8, 1814. He became a Roman Catholic priest and was a professor of ecclesiastical history at the Quebec seminary in 1845. He served as vicar-general in Boston in 1846 and from 1848 to 1863 traveled as a missionary, primarily in Mexico 435 and Central America. He focused extensively on Mexican antiquities, publishing a history of Aztec civilization between 1857 and 1859, and from 1861 to 1864, he edited a collection of documents in indigenous languages. In 1863, he claimed to have discovered a key to Mexican hieroglyphic writing, though its significance is highly debated. In 1864, he served as an archaeologist for the French military expedition in Mexico, and his Monuments anciens du Mexique was published by the French Government in 1866. Perhaps his most notable contribution was the 1861 publication of a French translation of the Popol Vuh, a sacred book of the Quiché Indians, along with a Quiché grammar and an essay on Central American mythology. In 1871, he published Bibliothèque Mexico-Guatemalienne, and between 1869 and 1870, he shared his principles of deciphering Indian picture-writing in his Manuscrit Troano, études sur le système graphique et la langue des Mayas. He passed away in Nice on January 8, 1874. His primary contribution lies in the thorough collection of materials; however, his interpretations are often seen as fanciful.


BRASSEY, THOMAS (1805-1870), English railway contractor, was born at Buerton, near Chester, on the 7th of November 1805. His father, besides cultivating land of his own, held a large farm of the marquess of Westminster; his ancestors, according to family tradition, having been settled for several centuries at Bulkeley, near Malpas, Cheshire, before they went to Buerton in 1663. Thomas Brassey received an ordinary commercial education at a Chester school. At the age of sixteen he was apprenticed to a surveyor, and on the completion of his term became the partner of his master, eventually assuming the sole management of the business. In the local surveys to which he devoted his attention during his early years he acquired the knowledge and practical experience which were the necessary foundation of his great reputation. His first engagement as railway contractor was entered upon in 1835, when he undertook the execution of a portion of the Grand Junction railway, on the invitation of the distinguished engineer Joseph Locke, who soon afterwards entrusted him with the completion of the London and Southampton railway, a task which involved contracts to the amount of £4,000,000 sterling and the employment of a body of 3000 men. At the same time he was engaged on portions of several other lines in the north of England and in Scotland. In conjunction with his partner, W. Mackenzie, Brassey undertook, in 1840, the construction of the railway from Paris to Rouen, of which Locke was engineer. He subsequently carried out the extension of the same line. A few years later he was engaged with his partner on five other French lines, and on his own account on the same number of lines in England, Wales and Scotland. Brassey was now in control of an industrial army of 75,000 men, and the capital involved in his various contracts amounted to some £36,000,000. But his energy and capacity were equal to still larger tasks. He undertook in 1851 other works in England and Scotland; and in the following year he engaged in the construction of railways in Holland, Prussia, Spain and Italy. One of his largest undertakings was the Grand Trunk railway of Canada, 1100 m. in length, with its fine bridge over the St Lawrence. In this work he was associated with Sir M. Peto and E.L. Betts. In the following years divisions of his industrial army were found in almost every country in Europe, in India, in Australia and in South America. Besides actual railway works, he originated and maintained a great number of subordinate assistant establishments, coal and iron works, dockyards, &c., the direction of which alone would be sufficient to strain the energies of an ordinary mind. His profits were, of course, enormous, but prosperity did not intoxicate him; and when heavy losses came, as sometimes they did, he took them bravely and quietly. Among the greatest of his pecuniary disasters were those caused by the fall of the great Barentin viaduct on the Rouen and Havre railway, and by the failure of Peto and Betts. Brassey was one of the first to aim at improving the relations between engineers and contractors, by setting himself against the corrupt practices which were common. He resolutely resisted the “scamping” of work and the bribery of inspectors, and what he called the “smothering of the engineer”; and he did much in this way to bring about a better state of things. Large-hearted and generous to a rare degree, modest and simple in his taste and manners, he was conscious of his power as a leader in his calling, and knew how to use it wisely and for noble ends. Honours came to him unsought. The cross of the Legion of Honour was conferred on him. From Victor Emmanuel he received the cross of the Order of St Maurice and St Lazarus; and from the emperor of Austria the decoration of the Iron Crown, which it is said had not before been given to a foreigner. He died at St Leonards on the 8th of December 1870. His life and labours are commemorated in a volume by Sir Arthur Helps (1872).

BRASSEY, THOMAS (1805-1870), an English railway contractor, was born in Buerton, near Chester, on November 7, 1805. His father, in addition to farming his own land, managed a large farm owned by the Marquess of Westminster; according to family tradition, his ancestors had been settled in Bulkeley, near Malpas, Cheshire, for several centuries before moving to Buerton in 1663. Thomas Brassey received a typical commercial education at a school in Chester. At the age of sixteen, he was apprenticed to a surveyor, and after completing his apprenticeship, he became his master's partner and eventually took over the management of the business. Through local surveys during his early years, he gained the knowledge and practical experience necessary to build his impressive reputation. His first role as a railway contractor began in 1835 when he was invited by the notable engineer Joseph Locke to work on a section of the Grand Junction Railway. Shortly after, Locke entrusted him with completing the London and Southampton Railway, a project that involved contracts worth £4,000,000 and the employment of 3,000 workers. At the same time, he was also working on several other lines in northern England and Scotland. Alongside his partner, W. Mackenzie, Brassey took on the construction of the railway from Paris to Rouen in 1840, with Locke as the engineer. He later completed the extension of that line. A few years after, he and his partner worked on five other French lines while he managed an equal number of lines on his own in England, Wales, and Scotland. At this point, Brassey oversaw an industrial workforce of 75,000 men, with the capital involved in his various contracts totaling around £36,000,000. However, his ambition and capabilities enabled him to tackle even larger projects. In 1851, he commenced other works in England and Scotland, and the following year he began constructing railways in Holland, Prussia, Spain, and Italy. One of his major projects was the Grand Trunk Railway in Canada, spanning 1,100 miles, which featured a remarkable bridge over the St. Lawrence. He collaborated on this project with Sir M. Peto and E.L. Betts. In the years that followed, segments of his workforce could be found in nearly every European country, as well as in India, Australia, and South America. Besides actual railway construction, he started and managed many supporting facilities, like coal and iron works and dockyards, the oversight of which alone would challenge an average person's abilities. His profits were substantial, but he remained grounded; when he faced significant losses, as he sometimes did, he handled them with courage and composure. Some of his greatest financial setbacks stemmed from the collapse of the great Barentin viaduct on the Rouen and Havre railway and the failure of Peto and Betts. Brassey was one of the pioneers aiming to improve the relationships between engineers and contractors by opposing the corrupt practices that were prevalent. He firmly fought against cutting corners and bribing inspectors, as well as what he called “smothering the engineer,” and he did much to promote better practices in the industry. Generous and open-hearted, remarkably modest in his tastes and manners, he recognized his influence as a leader in his field and knew how to wield it wisely for noble purposes. He received honors without seeking them; he was awarded the cross of the Legion of Honour and received the cross of the Order of St Maurice and St Lazarus from Victor Emmanuel. The emperor of Austria also granted him the decoration of the Iron Crown, which reportedly had never been bestowed upon a foreigner before. He passed away in St Leonards on December 8, 1870. His life and contributions are commemorated in a volume by Sir Arthur Helps (1872).

He left three sons, of whom the eldest, Thomas (b. 1836), was knighted and afterwards (1886) created Baron Brassey. Lord Brassey, who was educated at Rugby and Oxford, entered parliament as a liberal in 1865, and devoted himself largely to naval affairs. He was civil lord of the admiralty (1880-1883), and secretary to the admiralty (1883-1885); and both before and after his elevation to the peerage did important work on naval and statistical inquiries for the government. In 1893-1805 he was president of the Institution of Naval Architects. In 1894 he was a lord-in-waiting, and from 1895 to 1900 was governor of Victoria. In 1908 he was appointed lord warden of the Cinque Ports. His voyages in his yacht “Sunbeam” from 1876 onwards, with his first wife (d. 1887), who published an interesting book on the subject, took him all over the world. Lord Brassey married a second time in 1890. Among other publications, his inauguration of the Naval Annual (1886 onwards), and his volumes on The British Navy, are the most important. His eldest son Thomas, who edited the Naval Annual (1890-1904), and unsuccessfully contested several parliamentary constituencies, was born in 1862.

He had three sons, with the eldest, Thomas (b. 1836), being knighted and later made Baron Brassey in 1886. Lord Brassey, who was educated at Rugby and Oxford, entered parliament as a Liberal in 1865 and focused heavily on naval issues. He served as Civil Lord of the Admiralty from 1880 to 1883 and as Secretary to the Admiralty from 1883 to 1885. Before and after becoming a peer, he contributed significantly to naval and statistical inquiries for the government. He was the president of the Institution of Naval Architects from 1893 to 1905. In 1894, he was appointed a lord-in-waiting, and from 1895 to 1900, he served as the governor of Victoria. In 1908, he was named Lord Warden of the Cinque Ports. His journeys in his yacht “Sunbeam” starting in 1876, with his first wife (d. 1887), who wrote an intriguing book about their travels, took him all around the world. Lord Brassey remarried in 1890. Among his notable works are his launch of the Naval Annual (starting in 1886) and his volumes on The British Navy. His eldest son Thomas, who edited the Naval Annual from 1890 to 1904 and ran unsuccessfully for several parliamentary seats, was born in 1862.


BRASSÓ (Ger. Kronstadt; Rumanian, Braşov), a town of Hungary, in Transylvania, 206 m. S.E. of Kolozsvár by rail. Pop. (1900) 34,511. It is the capital of the comitat (county) of the same name, also known as Burzenland, a fertile country inhabited by an industrious population of Germans, Magyars and Rumanians. Brassó is beautifully situated on the slopes of the Transylvanian Alps, in a narrow valley, shut in by mountains, and presenting only one opening on the north-west towards the Burzen plain. The town is entirely dominated by the Zinne of Kapellenberg, a mountain rising 1276 ft. above the town (total altitude 3153 ft.), from which a beautiful view is obtained of the lofty mountains around and of the carefully cultivated plain of the Burzenland, dotted with tastefully built and well-kept villages. On the summit of the mountain is one of the numerous monuments erected in 1896 in different parts of the country to commemorate the thousandth anniversary of the foundation of the Hungarian state. It is known as Árpád’s Monument, and consists of a Doric column erected on a circular pedestal, which supports the bronze figure of a warrior from the time of Árpád.

BRASSÓ (Ger. Kronstadt; Rumanian, Braşov), a town in Hungary, located in Transylvania, 206 km southeast of Kolozsvár by train. Population (1900) 34,511. It serves as the capital of the comitat (county) of the same name, also referred to as Burzenland, a fertile area inhabited by a hard-working population of Germans, Hungarians, and Romanians. Brassó is beautifully situated on the slopes of the Transylvanian Alps, nestled in a narrow valley surrounded by mountains, with only one opening to the northwest leading to the Burzen plain. The town is completely overshadowed by the Zinne of Kapellenberg, a mountain rising 1,276 feet above the town (total altitude 3,153 feet), from which there is a stunning view of the towering mountains and the meticulously cultivated plain of Burzenland, dotted with charmingly constructed and well-maintained villages. At the summit of the mountain stands one of the many monuments erected in 1896 across the country to commemorate the thousandth anniversary of the founding of the Hungarian state. Known as Árpád’s Monument, it features a Doric column placed on a circular pedestal, which supports a bronze figure of a warrior from the time of Árpád.

Brassó consists of the inner town, which is the commercial centre, and the suburbs of Blumenau, Altstadt and Obere Vorstadt or Bolgárszeg, inhabited respectively by Germans, Magyars and Rumanians. To the east of the inner town rises the Schlossberg, crowned by the citadel, which was erected in 1553, and constitutes the principal remaining fragment of the old fortifications with which Brassó was encircled. The most interesting building in the town is the Protestant church, popularly called the Black Church, owing to its smoke-stained walls, caused by the great fire of 1689. This church, the finest in Transylvania, is a Gothic edifice with traces of Romanesque influence, and was built in 1385-1425. In the square in front of it is the statue of Johannes Honterus (1498-1549), “the apostle of Transylvania,” who was born in Brassó, and established here the first printing-press in Transylvania. In the principal square of the inner town stands the town hall, built in 1420 and restored in the 18th century, with a tower 190 ft. high. Brassó is the most important commercial and manufacturing town of Transylvania. Lying near the frontier of Rumania, with easy access through the Tömös pass, it developed from the earliest time an 436 active trade with that country and with the whole of the Balkan states. Its chief industries are iron and copper works, wool-spinning, turkey-red dyeing, leather goods, paper, cement and petroleum refineries. The timber industry in all its branches, with a speciality for the manufacture of the wooden bottles largely used by the peasantry in Hungary and in the Balkan states, as well as the dairy industry, and ham-curing are also fully developed. A peculiarity of Brassó, which constitutes a survival of the old methods of trade with the Balkan states, is the number of money-changers who ply their trade at small movable tables in the market-place and in the open street. Brassó is the most populous town of Transylvania, and its population is composed in about equal numbers of Germans, Magyars and Rumanians. The town, especially on market days, presents an animated and picturesque aspect. Here are seen Germans, Szeklers, Magyars, Rumanians, Armenians and Gipsies, each of them wearing their distinctive national costume, and talking and bargaining in their own special idiom.

Brassó consists of the inner town, which serves as the commercial center, and the suburbs of Blumenau, Altstadt, and Obere Vorstadt, or Bolgárszeg, home to Germans, Magyars, and Rumanians, respectively. To the east of the inner town stands the Schlossberg, topped by the citadel built in 1553, which is the main remaining part of the old fortifications that once surrounded Brassó. The most interesting building in town is the Protestant church, commonly known as the Black Church, due to its smoke-stained walls from the great fire of 1689. This church, the finest in Transylvania, is a Gothic structure with elements of Romanesque influence, built between 1385 and 1425. In the square in front of it is the statue of Johannes Honterus (1498-1549), “the apostle of Transylvania,” who was born in Brassó and established the first printing press in the region. In the main square of the inner town stands the town hall, constructed in 1420 and restored in the 18th century, featuring a tower that is 190 ft. high. Brassó is the most significant commercial and manufacturing town in Transylvania. Located near the Romanian border, with easy access through the Tömös pass, it has a long history of active trade with that country and the entire Balkan region. Its main industries include iron and copper production, wool spinning, turkey-red dyeing, leather goods, paper, cement, and petroleum refining. The timber industry thrives in all its branches, particularly in making wooden bottles commonly used by the peasantry in Hungary and the Balkan states, along with a well-developed dairy industry and ham-curing. A unique aspect of Brassó is the number of money-changers who set up small movable tables in the marketplace and on the streets, reflecting the old trade methods with the Balkan states. Brassó is the most populous town in Transylvania, with its population roughly equally divided among Germans, Magyars, and Rumanians. The town, especially on market days, has a lively and colorful atmosphere, showcasing Germans, Szeklers, Magyars, Rumanians, Armenians, and Gypsies, each wearing their distinctive national costumes and engaging in conversation and bargaining in their own languages.

Amongst the places of interest round Brassó is the watering-place Zaizon, 15 m. to the east, with ferruginous and iodine waters; while about 17 m. to the south-west lies the pretty Rumanian village of Zernest, where in 1690 the Austrian general Heussler was defeated and taken prisoner by Imre (Emerich) Tököly, the usurper of the Transylvanian throne.

Among the places of interest around Brașov is the spa Zaizon, 15 miles to the east, known for its iron and iodine-rich waters. About 17 miles to the southwest is the charming Romanian village of Zernest, where in 1690 the Austrian general Heussler was defeated and captured by Imre (Emerich) Tököly, the usurper of the Transylvanian throne.

Brassó was founded by the Teutonic Order in 1211, and soon became a flourishing town. Through the activity of Honterus it played a leading part in the introduction of the Reformation in Transylvania in the 16th century. The town was almost completely destroyed by the big fire of 1689. During the revolution of 1848-1849 it was besieged by the Hungarians under General Bern from March to July 1849, and several engagements between the Austrian and the Hungarian troops took place in its neighbourhood.

Brassó was established by the Teutonic Order in 1211 and quickly became a thriving town. Thanks to Honterus, it played a significant role in bringing the Reformation to Transylvania in the 16th century. The town was nearly completely wiped out by a major fire in 1689. During the revolution of 1848-1849, it was under siege by the Hungarians led by General Bern from March to July 1849, and several battles occurred in the surrounding area between the Austrian and Hungarian troops.


BRATHWAIT, RICHARD (1588-1673), English poet, son of Thomas Brathwait, was born in 1588 at his father’s manor of Burneshead, near Kendal, Westmorland. He entered Oriel College, Oxford, in 1604, and remained there for some years, pursuing the study of poetry and Roman history. He removed to Cambridge to study law and afterwards to London to the Inns of Court. Thomas Brathwait died in 1610, and the son went down to live on the estate he inherited from his father. In 1617 he married Frances Lawson of Nesham, near Darlington. On the death of his elder brother, Sir Thomas Brathwait, in 1618, Richard became the head of the family, and an important personage in the county, being deputy-lieutenant and justice of the peace. In 1633 his wife died, and in 1639 he married again. His only son by this second marriage, Sir Stafford Brathwait, was killed in a sea-fight against the Algerian pirates. Richard Brathwait’s most famous work is Barnabae Itinerarium or Barnabees Journall [1638], by “Corymbaeus,” written in English and Latin rhyme. The title-page says it is written for the “travellers’ solace” and is to be chanted to the old tune of “Barnabe.” The story of “drunken Barnabee’s” four journeys to the north of England contains much amusing topographical information, and its gaiety is unflagging. Barnabee rarely visits a town or village without some notice of an excellent inn or a charming hostess, but he hardly deserves the epithet “drunken.” At Banbury he saw the Puritan who has become proverbial,

BRATHWAIT, RICHARD (1588-1673), English poet, son of Thomas Brathwait, was born in 1588 at his father’s manor of Burneshead, near Kendal, Westmorland. He joined Oriel College, Oxford, in 1604 and stayed there for several years, studying poetry and Roman history. He then moved to Cambridge to study law and later to London to attend the Inns of Court. Thomas Brathwait passed away in 1610, and his son returned to manage the estate he inherited from his father. In 1617, he married Frances Lawson from Nesham, near Darlington. After his elder brother, Sir Thomas Brathwait, died in 1618, Richard became the head of the family and a significant figure in the county, serving as deputy-lieutenant and justice of the peace. His wife died in 1633, and he remarried in 1639. His only son from this second marriage, Sir Stafford Brathwait, was killed in a battle against Algerian pirates. Richard Brathwait’s most famous work is Barnabae Itinerarium or Barnabees Journall [1638], by “Corymbaeus,” written in English and Latin rhyme. The title page states it is made for the “travellers’ solace” and is meant to be sung to the old tune of “Barnabe.” The story of “drunken Barnabee’s” four trips to the north of England offers plenty of amusing geographical details, and its cheerfulness is constant. Barnabee seldom visits a town or village without mentioning a great inn or a delightful hostess, but he hardly deserves the title “drunken.” In Banbury, he encountered the Puritan who has become well-known.

“Hanging of his cat on Monday

“Hanging of his cat on Monday

For killing of a Mouse on Sunday.”

For killing a mouse on Sunday.

Brathwait’s identity with “Corymbaeus” was first established by Joseph Haslewood. In his later years he removed to Catterick, where he died on the 4th of May 1673. Among his other works are: The Golden Fleece (1611), with a second title-page announcing “sonnets and madrigals,” and a treatise on the Art of Poesy, which is not preserved; The Poets Willow; or the Passionate Shepheard (1614); The Prodigals Teares (1614); The Schollers Medley, or an intermixt Discourse upon Historicall and Poeticall relations (1614), known in later editions as a Survey of History (1638, &c.); a collection of epigrams and satires entitled A Strappado for the Divell (1615), with which was published incongruously Loves Labyrinth (edited, 1878, by J.W. Ebsworth); Natures Embassie; or, the wildemans measures; danced naked by twelve satyres (1621), thirty satires finding antique parallels for modern vices; with these are bound up The Shepheards Tales (1621), a collection of pastorals, one section of which was reprinted by Sir Egerton Brydges in 1815; two treatises on manners, The English Gentleman (1630) and The English Gentlewoman (1631); Anniversaries upon his Panarete (1634), a poem in memory of his wife; Essaies upon the Five Senses (1620); The Psalmes of David ... and other holy Prophets, paraphras’d in English (1638); A Comment upon Two Tales of ... Jeffray Chaucer (1665; edited for the Chaucer Soc. by C. Spurgeon, 1901). Thomas Hearne, on whose testimony (MS. collections for the year 1713, vol. 47, p. 127) the authorship of the Itinerarium chiefly rests, not inappropriately called him “the scribler of those times,” and the list just given of his works, published under various pseudonyms, is by no means complete.

Brathwait’s identity as “Corymbaeus” was first identified by Joseph Haslewood. In his later years, he moved to Catterick, where he passed away on May 4, 1673. Among his other works are: The Golden Fleece (1611), with a second title page announcing “sonnets and madrigals,” and a treatise on the Art of Poesy, which is not preserved; The Poets Willow; or the Passionate Shepheard (1614); The Prodigals Teares (1614); The Schollers Medley, or an intermixt Discourse upon Historicall and Poeticall relations (1614), later known as Survey of History (1638, &c.); a collection of epigrams and satires titled A Strappado for the Divell (1615), which was published alongside Loves Labyrinth (edited, 1878, by J.W. Ebsworth); Natures Embassie; or, the wildemans measures; danced naked by twelve satyres (1621), featuring thirty satires that find ancient parallels for modern vices; included with these is The Shepheards Tales (1621), a collection of pastorals, one section of which was reprinted by Sir Egerton Brydges in 1815; two treatises on manners, The English Gentleman (1630) and The English Gentlewoman (1631); Anniversaries upon his Panarete (1634), a poem in memory of his wife; Essaies upon the Five Senses (1620); The Psalmes of David ... and other holy Prophets, paraphras’d in English (1638); A Comment upon Two Tales of ... Jeffray Chaucer (1665; edited for the Chaucer Soc. by C. Spurgeon, 1901). Thomas Hearne, whose testimony (MS. collections for the year 1713, vol. 47, p. 127) is the main basis for attributing the authorship of the Itinerarium, aptly referred to him as “the scribler of those times,” and the list of his works published under various pseudonyms is by no means exhaustive.

A full bibliography is given in Joseph Haslewood’s edition of Barnabee’s Journall (ed. W.C. Hazlitt, 1876). See also J. Corser, Collectanea (Chetham Soc., 1860, &c.).

A complete bibliography can be found in Joseph Haslewood’s edition of Barnabee’s Journall (ed. W.C. Hazlitt, 1876). Also, check out J. Corser, Collectanea (Chetham Soc., 1860, &c.).


BRATIANU (or Bratiano), ION C. (1821-1891), Rumanian statesman, was born at Pitesci in Walachia on the 2nd of June 1821. He entered the Walachian army in 1838, and visited Paris in 1841 for purposes of study. Returning to Walachia, he took part, with his friend C.A. Rosetti and other prominent politicians, in the Rumanian rebellion of 1848, and acted as prefect of police in the provisional government formed in that year. The restoration of Russian and Turkish authority shortly afterwards drove him into exile. He took refuge in Paris, and endeavoured to influence French opinion in favour of the proposed union and autonomy of the Danubian principalities. In 1854, however, he was sentenced to a fine of £120 and three months’ imprisonment for sedition, and later confined in a lunatic asylum; but in 1856 he returned home with his brother, Dimitrie Bratianu, afterwards one of his foremost political opponents. During the reign of Prince Cuza (1859-1866), Bratianu figured prominently as one of the Liberal leaders. He assisted in 1866 in the deposition of Cuza and the election of Prince Charles of Hohenzollern, under whom he held several ministerial appointments during the next four years. He was arrested for complicity in the revolution of 1870, but soon released. In 1876, aided by C.A. Rosetti, he formed a Liberal cabinet, which remained in power until 1888. For an account of his work in connexion with the Russo-Turkish War of 1877, the Berlin congress, the establishment of the Rumanian kingdom, the revision of the constitution, and other reforms, see Rumania. After 1883 Bratianu acted as sole leader of the Liberals, owing to a quarrel with C.A. Rosetti, his friend and political ally for nearly forty years. His long tenure of office, without parallel in Rumanian history, rendered Bratianu extremely unpopular, and at its close his impeachment appeared inevitable. But any proceedings taken against the minister would have involved charges against the king, who was largely responsible for his policy; and the impeachment was averted by a vote of parliament in February 1890. Bratianu died on the 16th of May 1891. Besides being the leading statesman of Rumania during the critical years 1876-1888, he attained some eminence as a writer. His French political pamphlets, Mémoire sur l’empire d’Autriche dans la question d’Orient (1855), Réflexions sur la situation (1856), Mémoire sur la situation de la Moldavie depuis le traité de Paris (1857), and La Question religieuse en Roumanie (1866), were all published in Paris.

BRATIANU (or Bratiano), ION C. (1821-1891), Romanian statesman, was born in Pitesci, Wallachia, on June 2, 1821. He joined the Wallachian army in 1838 and went to Paris in 1841 to study. After returning to Wallachia, he participated in the Romanian rebellion of 1848 alongside his friend C.A. Rosetti and other notable politicians, serving as the police prefect in the provisional government formed that year. The restoration of Russian and Turkish authority soon after forced him into exile. He sought refuge in Paris and attempted to sway French opinion in favor of the proposed union and autonomy for the Danubian principalities. However, in 1854, he was fined £120 and sentenced to three months in prison for sedition, later being confined in a mental asylum; but in 1856, he returned home with his brother, Dimitrie Bratianu, who later became one of his main political rivals. During Prince Cuza's reign (1859-1866), Bratianu emerged as one of the Liberal leaders. He played a role in deposing Cuza in 1866 and electing Prince Charles of Hohenzollern, under whom he held several ministerial roles over the next four years. He was arrested for his involvement in the revolution of 1870 but was soon released. In 1876, with help from C.A. Rosetti, he formed a Liberal cabinet that stayed in power until 1888. For details about his work related to the Russo-Turkish War of 1877, the Berlin congress, the establishment of the Romanian kingdom, constitutional revisions, and other reforms, see Rumania. After 1883, Bratianu became the sole leader of the Liberals due to a falling out with C.A. Rosetti, his friend and political ally for nearly forty years. His lengthy time in office, unmatched in Romanian history, made Bratianu extremely unpopular, and by the end of his term, impeachment seemed unavoidable. However, any action against him would have implicated the king, who was largely responsible for his policies; thus, impeachment was avoided by a parliamentary vote in February 1890. Bratianu passed away on May 16, 1891. Besides being the leading statesman of Romania during the critical years of 1876-1888, he gained some recognition as a writer. His French political pamphlets, Mémoire sur l’empire d’Autriche dans la question d’Orient (1855), Réflexions sur la situation (1856), Mémoire sur la situation de la Moldavie depuis le traité de Paris (1857), and La Question religieuse en Roumanie (1866), were all published in Paris.

For his other writings and speeches see Din Scrierile şi cuvîntarile lui I.C. Bratianu, 1821-1891 (Bucharest, 1903, &c.), edited with a biographical introduction by D.A. Sturza. A brief anonymous biography, Ion C. Bratianu, appeared at Bucharest in 1893.

For his other writings and speeches, see Din Scrierile şi cuvîntarile lui I.C. Bratianu, 1821-1891 (Bucharest, 1903, &c.), edited with a biographical introduction by D.A. Sturza. A brief anonymous biography, Ion C. Bratianu, was published in Bucharest in 1893.


BRATLANDSDAL (i.e. Bratland valley), a gorge of southern Norway in Stavanger amt (county), formed by the Bratland river, a powerful torrent issuing into Lake Suldal. A remarkable road traverses the gorge by means of cuttings and a tunnel, and the scenery is among the most magnificent in Norway. It is usually approached from Stavanger by way of Sand and Lake Suldal, and the road divides above the gorge, branches running north to Odde and south-east through Telemarken. The 437 junction of the roads is near Breifond, 13 m. above Naes at the mouth of the river, on the west shore of Lake Roldal, which is fed by the snowfield to the west, north and east, and is drained by the Bratland river.

BRATLANDSDAL (i.e. Bratland valley), a gorge in southern Norway located in Stavanger amt (county), carved by the Bratland river, a powerful stream flowing into Lake Suldal. There's an impressive road that goes through the gorge with cuttings and a tunnel, and the views are among the most breathtaking in Norway. It's typically accessed from Stavanger via Sand and Lake Suldal, with the road splitting above the gorge, with branches heading north to Odde and southeast toward Telemarken. The 437 intersection of the roads is near Breifond, 13 miles above Naes at the river’s mouth, along the west shore of Lake Roldal, which is fed by the snowfields to the west, north, and east, and is drained by the Bratland river.


BRATTISHING, or Brandishing (from the Fr. bretèche), in architecture, a sort of crest or ridge on a parapet, or species of embattlement. The term, however, is generally employed to describe the ranges of flowers which form the crests of so many parapets in the Tudor period.

BRATTISHNESS, or Showing off (from the Fr. bretèche), in architecture, refers to a type of crest or ridge on a parapet, or a kind of embattlement. However, the term is usually used to describe the rows of flowers that create the crests of many parapets from the Tudor period.


BRATTLEBORO, a village of Windham county, Vermont, U.S.A., in a township (pop. 1910, 7541) of the same name, in the south-east part of the state, 60 m. N. of Springfield, Massachusetts, on the Connecticut river. Pop. (1890) 5467; (1900) 5297 (686 foreign-born); (1910) 6517. It is served by the Central Vermont and the Boston & Maine railways. Situated in a hilly, heavily wooded country, it is an attractive place, with a few houses dating from the 18th century. Among the manufactures are toys, furniture, overalls and organs, the Estey and the Carpenter organs being made there. First settled about 1753, Brattleboro took its name from one of the original patentees, William Brattle (1702-1776), a Massachusetts loyalist. It was incorporated ten years later.

BRATTLEBORO, is a village in Windham County, Vermont, U.S.A., located in a township (pop. 1910, 7541) of the same name in the southeast part of the state, 60 miles north of Springfield, Massachusetts, on the Connecticut River. Population: (1890) 5467; (1900) 5297 (686 foreign-born); (1910) 6517. It is served by the Central Vermont and Boston & Maine railways. Nestled in a hilly, heavily wooded area, it is a charming place, with some houses dating back to the 18th century. Its manufacturing includes toys, furniture, overalls, and organs, including the Estey and Carpenter organs. First settled around 1753, Brattleboro was named after one of the original patentees, William Brattle (1702-1776), a loyalist from Massachusetts. It was incorporated ten years later.

See H. Burnham, Brattleboro (Brattleboro, 1880), and H.M. Burt, The Attractions of Brattleboro, Glimpses of Past and Present (Brattleboro, 1866).

See H. Burnham, Brattleboro (Brattleboro, 1880), and H.M. Burt, The Attractions of Brattleboro, Glimpses of Past and Present (Brattleboro, 1866).


BRAUNAU (Czech Broumov), a town of Bohemia, Austria, 139 m. E.N.E. of Prague by rail. Pop. (1900) 7622, chiefly German. The town is built on a rocky eminence on the right bank of the Steine. It has an imposing Benedictine abbey, once a castle, but converted into a religious house in 1322, when Ottakar I. gave the district to the Benedictines. Noteworthy also is the great church of Saints Wenceslaus and Adalbert, built between 1683 and 1733. This stands on the site where, in 1618, the Protestants attempted to build a church, the forcible prevention of which by Abbot Wolfgang Solander was the immediate cause of the protest of the Bohemian estates and the “defenestration” of the ministers Martinic and Slavata, which opened the Thirty Years’ War. After the battle of the White Hill, near Prague (1620), the town was deprived of all its privileges, which were, however, in great part restored nine years later. It is now a manufacturing centre (cloth, woollen and cotton stuffs, &c.) and has a considerable trade.

BRAUNAU (Czech Broumov), a town in Bohemia, Austria, 139 m. E.N.E. of Prague by train. Pop. (1900) 7622, mostly German. The town is situated on a rocky hill on the right bank of the Steine. It features a striking Benedictine abbey, which was once a castle but was turned into a religious house in 1322 when Ottakar I. granted the area to the Benedictines. Also notable is the large church of Saints Wenceslaus and Adalbert, constructed between 1683 and 1733. This church is located on the site where, in 1618, Protestants tried to build a church, and their attempt was forcibly stopped by Abbot Wolfgang Solander, which led to the protest from the Bohemian estates and the “defenestration” of ministers Martinic and Slavata, events that sparked the Thirty Years’ War. After the battle of the White Hill, near Prague (1620), the town lost all its privileges, which were mostly restored nine years later. It is now a manufacturing hub (cloth, woolen and cotton goods, etc.) and has a significant trade.


BRAUNSBERG, a town of Germany, in the kingdom of Prussia, 38 m. by rail S.W. of Königsberg, on the Passarge, 4 m. from its mouth in the Frisches Haff. Pop. (1900) 12,497. It possesses numerous Roman Catholic institutions, of which the most important is the Lyceum Hosianum (enjoying university rank), founded in 1564 by the cardinal bishop Stanislaus Hosius. Brewing, tanning, and the manufactures of soap, yeast, carriages and bricks are the most important industries of the town, which also carries on a certain amount of trade in corn, ship timber and yarn. The river is navigable for small vessels. The castle of Braunsberg was built by the Teutonic knights in 1241, and the town was founded ten years later. Destroyed by the Prussians in 1262, it was restored in 1279. The town, which was the seat of the bishops of Ermeland from 1255 to 1298, was granted the “law of Lübeck” by its bishop in 1284, and admitted to the Hanseatic League. After numerous vicissitudes it fell into the hands of the Poles in 1520, and in 1626 it was captured by Gustavus Adolphus. The Swedes kept possession till 1635. It fell to Prussia by the first partition of Poland in 1772.

BRAUNSBERG, is a town in Germany, located in the kingdom of Prussia, 38 miles by rail southwest of Königsberg, on the Passarge river, 4 miles from its mouth at Frisches Haff. Its population was 12,497 in 1900. The town has several Roman Catholic institutions, the most notable being the Lyceum Hosianum (which has university status), founded in 1564 by Cardinal Bishop Stanislaus Hosius. The most significant industries in the town include brewing, tanning, and the production of soap, yeast, carriages, and bricks. It also engages in trade of corn, ship timber, and yarn. The river is navigable for small vessels. The castle of Braunsberg was constructed by the Teutonic Knights in 1241, and the town was established ten years later. It was destroyed by the Prussians in 1262 but was restored in 1279. The town served as the seat of the Bishops of Ermeland from 1255 to 1298, was granted the “law of Lübeck” by its bishop in 1284, and became part of the Hanseatic League. After many changes over the years, it came under Polish control in 1520 and was captured by Gustavus Adolphus in 1626. The Swedes held it until 1635. It became part of Prussia after the first partition of Poland in 1772.


BRAVO (Ital. for “brave”), the name for hired assassins such as were formerly common in Italy. The word had at first no evil meaning, but was applied to the retainers of the great noble houses, or to the cavalier-type of swashbucklers familiar in fiction. In later Italian history, especially in that of Venice, the bravi were desperate ruffians who for payment were ready to commit any crime, however foul.

BRAVO (Italian for “brave”), refers to hired assassins who were once common in Italy. Initially, the term didn’t carry a negative connotation and was used to describe the followers of powerful noble families or the swashbuckling types familiar in stories. However, in later Italian history, especially in Venice, the bravi became ruthless criminals willing to commit any crime, no matter how terrible, for money.


BRAWLING (probably connected with Ger. brallen, to roar, shout), in law, the offence of quarrelling, or creating a disturbance in a church or churchyard. During the early stages of the Reformation in England religious controversy too often became converted into actual disturbance, and the ritual lawlessness of the parochial clergy very frequently provoked popular violence. To repress these disturbances an act was passed in 1551, by which it was enacted “that if any person shall, by words only, quarrel, chide or brawl in any church or churchyard, it shall be lawful for the ordinary of the place where the same shall be done and proved by two lawful witnesses, to suspend any person so offending, if he be a layman, from the entrance of the church, and if he be a clerk, from the ministration of his office, for so long as the said ordinary shall think meet, according to the fault.” An act of 1553 added the punishment of imprisonment until the party should repent. The act of 1551 was partly repealed in 1828 and wholly repealed as regards laymen by the Ecclesiastical Courts Jurisdiction Act 1860. Under that act, which applies to Ireland as well as to England, persons guilty of riotous, violent or indecent behaviour, in churches and chapels of the Church of England or Ireland, or in any chapel of any religious denomination, or in England in any place of religious worship duly certified, or in churchyards or burial-grounds, are liable on conviction before two justices to a penalty of not more than £5, or imprisonment for any term not exceeding two months. This enactment applies to clergy as well as to laity, and a clergyman of the Church of England convicted under it may also be dealt with under the Clergy Discipline Act of 1892 (Girt v. Fillingham, 1901, L.R. Prob. 176). When Mr J. Kensit during an ordination service in St Paul’s cathedral “objected” to one of the candidates for ordination, on grounds which did not constitute an impediment or notable crime within the meaning of the ordination service, he was held to have unlawfully disturbed the bishop of London in the conduct of the service, and to be liable to conviction under the act of 1860 (Kensit v. Dean and Chapter of St Paul’s, 1905, L.R. 2 K.B. 249). The public worship of Protestant Dissenters, Roman Catholics and Jews in England had before 1860 been protected by a series of statutes beginning with the Toleration Act of 1689, and ending with the Liberty of Religious Worship Act 1855. These enactments, though not repealed, are for practical purposes superseded by the summary remedy given by the act of 1860. In Scotland disturbance of public worship is punishable as a breach of the peace (Dougall v. Dykes, 1861, 4 Irvine 101).

Brawling (likely related to Ger. brallen, to roar, shout), is a legal term for the offense of fighting or causing a disturbance in a church or churchyard. In the early days of the Reformation in England, religious debates often turned into actual disturbances, and the unruly behavior of local clergy frequently sparked public violence. To curb these disturbances, a law was enacted in 1551, stating that “if any person shall, by words only, quarrel, argue, or brawl in any church or churchyard, the local authority can, with proof from two lawful witnesses, suspend any offending layperson from entering the church, and if the offender is a clerk, from performing their duties, for as long as the authority sees fit based on the offense.” An additional law in 1553 introduced imprisonment until the offender repented. The 1551 act was partially repealed in 1828 and completely repealed for laypeople by the Ecclesiastical Courts Jurisdiction Act of 1860. This act, which applies to both Ireland and England, states that anyone guilty of riotous, violent, or indecent behavior in churches and chapels of the Church of England or Ireland, or in any certified place of religious worship in England, as well as churchyards or burial grounds, can be fined up to £5 or face imprisonment for up to two months upon conviction by two justices. This law applies equally to clergy and laypeople, and an Anglican clergyman found guilty can also face consequences under the Clergy Discipline Act of 1892 (Girt v. Fillingham, 1901, L.R. Prob. 176). When Mr. J. Kensit expressed objections during an ordination service at St Paul’s Cathedral regarding one of the candidates for ordination, his objections did not constitute a legitimate reason for obstruction in the ordination service. He was found to have unlawfully disturbed the Bishop of London during the service and was subject to conviction under the 1860 act (Kensit v. Dean and Chapter of St Paul’s, 1905, L.R. 2 K.B. 249). Before 1860, the public worship of Protestant Dissenters, Roman Catholics, and Jews in England was protected by various laws starting with the Toleration Act of 1689 and ending with the Liberty of Religious Worship Act of 1855. While these laws have not been repealed, they have been largely replaced by the summary remedy provided by the act of 1860. In Scotland, causing a disturbance during public worship is punishable as a breach of the peace (Dougall v. Dykes, 1861, 4 Irvine 101).

In British possessions abroad interference with religious worship is usually dealt with by legislation, and not as a common-law offence. In India it is an offence voluntarily to cause disturbance to any assembly lawfully engaged in the performance of religious worship or religious ceremonies (Penal Code, s. 296). Under the Queensland Criminal Code of 1899 (s. 207) penalties are imposed on persons who wilfully and without lawful justification or excuse (the proof of which lies on them) disquiet or disturb any meeting of persons lawfully assembled for religious worship, or assault any forces lawfully officiating at such meeting, or any of the persons there assembled.

In British territories overseas, issues with religious worship are typically managed through legislation rather than as common-law offenses. In India, it is considered an offense to intentionally cause a disturbance to any group that is lawfully engaged in religious worship or ceremonies (Penal Code, s. 296). According to the Queensland Criminal Code of 1899 (s. 207), penalties are applied to individuals who willfully and without lawful justification or excuse (the burden of proof is on them) disrupt or disturb any gathering of people lawfully assembled for religious worship, or assault any officials legally officiating at such gatherings, or any of the attendees present.

In the United States disturbance of religious worship is treated as an offence under the common law, which is in many states supplemented by legislation (see Bishop, Amer. Crim. Law, 8th ed. 1892, vol. i. s. 542, vol. ii. ss. 303-305; California Penal Code, s. 302; Revised Laws of Massachusetts, 1902, chap. 212, s. 30.).

In the United States, interfering with religious worship is considered an offense under common law, which in many states is augmented by legislation (see Bishop, Amer. Crim. Law, 8th ed. 1892, vol. i. s. 542, vol. ii. ss. 303-305; California Penal Code, s. 302; Revised Laws of Massachusetts, 1902, chap. 212, s. 30.).


BRAY, SIR REGINALD (d. 1503), British statesman and architect, was the second son of Sir Richard Bray, one of the privy council of Henry VI. Reginald was born in the parish of St John Bedwardine, near Worcester, but the date of his birth is uncertain. He was receiver-general and steward of the household to Sir Henry Stafford, second husband of Margaret, countess of Richmond, whose son afterwards became King Henry VII. The accession of the king Henry VII. favoured the fortunes of Reginald Bray, who was created a knight of the Bath at the coronation and afterwards a knight of the Garter. In the first year of Henry VII.’s reign he was given a grant of the constableship of Oakham Castle in Rutland, and was appointed joint chief justice with Lord Fitz Walter of all the forest south of Trent and chosen of the privy council. Subsequently he was made high treasurer and chancellor of the duchy of 438 Lancaster. In October 1494 he became high steward of the university of Oxford, and he was a member of the parliament summoned in the 11th year of Henry VII’s reign. In June 1497 he was at the battle of Blackheath, and his services in repressing the Cornish rebels were rewarded with a gift of estates and the title of knight banneret. His taste and skill in architecture are attested by Henry VII.’s chapel at Westminster and St George’s chapel at Windsor. He directed the building of the former, and the finishing and decoration of the latter, to which, moreover, he was a liberal contributor, building at his own expense a chapel still called by his name and ornamented with his crest, the initial letters of his name, and a device representing the hemp-bray, an instrument used by hemp manufacturers. He died in 1503, before the Westminster chapel was completed, and was interred in St George’s chapel.

BRAY, SIR REGINALD (d. 1503), British statesman and architect, was the second son of Sir Richard Bray, who served on the privy council of Henry VI. Reginald was born in the parish of St John Bedwardine, near Worcester, but his birth date is unknown. He was the receiver-general and steward of the household for Sir Henry Stafford, the second husband of Margaret, countess of Richmond, whose son later became King Henry VII. The rise of King Henry VII boosted Reginald Bray's fortunes, as he was made a knight of the Bath at the coronation and later became a knight of the Garter. In the first year of Henry VII’s reign, he received a grant for the constableship of Oakham Castle in Rutland, was appointed joint chief justice with Lord Fitz Walter for all the forest south of the Trent, and was chosen for the privy council. He was later made high treasurer and chancellor of the duchy of Lancaster. In October 1494, he became high steward of the University of Oxford and was a member of the parliament convened in the 11th year of Henry VII’s reign. In June 1497, he participated in the battle of Blackheath, and his efforts in suppressing the Cornish rebels earned him estates and the title of knight banneret. His taste and talent in architecture are reflected in Henry VII’s chapel at Westminster and St George’s chapel at Windsor. He oversaw the construction of the former and the finishing and decoration of the latter. Additionally, he contributed generously to it, building a chapel that still bears his name, decorated with his crest, the initials of his name, and a symbol representing the hemp-bray, a tool used in hemp processing. He died in 1503, before the Westminster chapel was finished, and was buried in St George’s chapel.


BRAY, THOMAS (1656-1730), English divine, was born at Marton, Shropshire, in 1656, and educated at All Souls’ College, Oxford. After leaving the university he was appointed vicar of Over-Whitacre, and rector of Sheldon in Warwickshire, where he wrote his famous Catechetical Lectures. Henry Compton, bishop of London, appointed him in 1696 as his commissary to organize the Anglican church in Maryland, and he was in that colony in 1699-1700. He took a great interest in colonial missions, especially among the American Indians, and it is to his exertions that the Society for the Propagation of the Gospel owes its existence. He also projected a successful scheme for establishing parish libraries in England and America, out of which grew the Society for Promoting Christian Knowledge. From 1706 till his death in February 1730 he was rector of St Botolph-Without, Aldgate, London, being unceasingly engaged in philanthropic and literary pursuits.

BRAY, THOMAS (1656-1730), English clergyman, was born in Marton, Shropshire, in 1656, and educated at All Souls’ College, Oxford. After graduating, he became the vicar of Over-Whitacre and the rector of Sheldon in Warwickshire, where he wrote his well-known Catechetical Lectures. In 1696, Henry Compton, the bishop of London, appointed him as his commissary to organize the Anglican church in Maryland, and he was in that colony from 1699 to 1700. He was very interested in colonial missions, especially among American Indians, and the Society for the Propagation of the Gospel owes its existence to his efforts. He also proposed a successful plan to establish parish libraries in England and America, which led to the creation of the Society for Promoting Christian Knowledge. From 1706 until his death in February 1730, he served as rector of St Botolph-Without, Aldgate, London, where he was constantly involved in charitable and literary activities.


BRAY, a village in the Wokingham parliamentary division of Berkshire, England, beautifully situated on the west (right) bank of the Thames, 1 m. S. of Maidenhead Bridge. Pop. (1901) 2978. There are numerous riverside residences in the locality. The church of St Michael has portions of various dates from the Early English period onward, and is much restored. It contains a number of brasses of the 14th, 15th, 16th and 17th centuries. A well-known ballad, “The Vicar of Bray,” tells how a vicar held his position by easy conversions of faith according to necessity, from the days of Charles II. until the accession of George I. and the foundation of “the illustrious house of Hanover” (1714). One Francis Carswell, who is buried in the church, was vicar for forty-two years, approximately during this period, dying in 1709; but the legend is earlier, and the name of the vicar who gave rise to it is not certainly known. That of Simon Aleyn, who held the office from c. 1540 to 1588, is generally accepted, as, in the reigns of Henry VIII., Edward VI., Mary and Elizabeth, he is said to have been successively Papist, Protestant, Papist and Protestant. The name of Simon Simonds is also given on the authority of the vicar of the parish in 1745; Simonds died a canon of Windsor in 1551, but had been vicar of Bray. Tradition ascribes the song to a soldier in Colonel Fuller’s troop of dragoons in the reign of George I.

BRAY, a village in the Wokingham parliamentary division of Berkshire, England, is beautifully located on the west (right) bank of the Thames, just 1 mile south of Maidenhead Bridge. Population (1901) was 2,978. There are many riverside homes in the area. The church of St Michael has parts dating from the Early English period onwards and has been extensively restored. It features several brasses from the 14th, 15th, 16th, and 17th centuries. A famous ballad, “The Vicar of Bray,” tells the story of a vicar who maintained his position by easily switching faiths as needed, from the days of Charles II until the rise of George I and the establishment of “the illustrious house of Hanover” (1714). One Francis Carswell, who is buried in the church, served as vicar for forty-two years during this period and passed away in 1709; however, the legend predates him, and the name of the original vicar it refers to is not definitively known. That of Simon Aleyn, who served from around 1540 to 1588, is commonly accepted since he is said to have been a Papist, then a Protestant, back to Papist, and then Protestant again during the reigns of Henry VIII, Edward VI, Mary, and Elizabeth. The name Simon Simonds is also mentioned based on the account of the parish vicar in 1745; Simonds died as a canon of Windsor in 1551 but was once the vicar of Bray. Tradition credits the song to a soldier in Colonel Fuller’s troop of dragoons during the reign of George I.


BRAY, a seaport and watering-place of Co. Wicklow, Ireland, 12 m. S.S.E. of Dublin on the Dublin & South-Eastern railway, situated on both sides of the river Bray. Pop. of urban district (1901) 7424. For parliamentary purposes it is divided between the eastern division of county Wicklow and the southern of county Dublin. A harbour was constructed by the urban district council (the harbour authority) which accommodates ships of 400 tons. There is some industry in brewing, milling and fishing, but the town, which is known as the “Irish Brighton,” is almost wholly dependent for its prosperity on visitors from Dublin and elsewhere. It therefore possesses all the equipments of a modern seaside resort; there is a fine sea-wall with esplanade upwards of a mile in length; the bathing is good, and race meetings are held. The town is rapidly increasing in size. The coast, especially towards the promontory of Bray Head, offers beautiful sea-views, and some of the best inland scenery in the county is readily accessible, such as the Glens of the Dargle and the Downs, the demesne of Powerscourt, the Bray river, with its loughs, and the pass of the Scalp. The demesne of Kilruddery, the seat of the earls of Meath, is specially beautiful. About 1170 Bray was bestowed by Richard de Clare or Strongbow, earl of Pembroke and Strigul, on Walter de Reddesford, who took the title of baron of Bray, and built a castle.

BRAY, is a seaport and seaside town in Co. Wicklow, Ireland, located 12 miles southeast of Dublin on the Dublin & South-Eastern railway, straddling both sides of the river Bray. The population of the urban district was 7,424 in 1901. For parliamentary purposes, it falls within the eastern division of county Wicklow and the southern division of county Dublin. A harbor was built by the urban district council (the harbor authority) that can accommodate ships up to 400 tons. There's some industry in brewing, milling, and fishing, but the town, often referred to as the "Irish Brighton," primarily relies on visitors from Dublin and beyond for its economy. As a result, it features all the amenities of a modern seaside resort, including a lovely sea-wall with a promenade over a mile long; the swimming conditions are good, and race events are held. The town is rapidly growing in size. The coast, particularly around Bray Head, provides stunning sea views, and some of the best inland scenery in the county is easily accessible, such as the Glens of the Dargle, the Downs, the grounds of Powerscourt, the Bray river with its lakes, and the pass of the Scalp. The grounds of Kilruddery, the residence of the earls of Meath, are especially beautiful. Around 1170, Bray was granted by Richard de Clare, known as Strongbow, earl of Pembroke and Strigul, to Walter de Reddesford, who took on the title of baron of Bray and built a castle.


BRAYLEY, EDWARD WEDLAKE (1773-1854), English antiquary and topographer, was born at Lambeth, London, in 1773. He was apprenticed to the enamelling trade, but early developed literary tastes. He formed a close friendship with John Britton, which lasted for sixty-five years. They entered into a literary partnership, and after some small successes at song and play writing they became joint editors of The Beauties of England and Wales, themselves writing many of the volumes. Long after he had become famous as a topographer, Brayley continued his enamel work. In 1823 he was elected a fellow of the Society of Antiquaries. He died in London on the 23rd of September 1854. His other works include Sir Reginalde or the Black Tower (1803); Views in Suffolk, Norfolk and Northamptonshire, illustrative of works of Robt. Bloowifield (1806); Lambeth Palace (1806); The History of the Abbey Church of Westminster (2 vols., 1818); Topographical Sketches of Brighthelmstone (1825); Historical and Descriptive Accounts of Theatres of London (1826); Londiniana (1829); History of Surrey (5 vols., 1841-1848).

BRAYLEY, EDWARD WEDLAKE (1773-1854), English antiquarian and topographer, was born in Lambeth, London, in 1773. He was apprenticed to the enameling trade but quickly developed a passion for literature. He formed a close friendship with John Britton that lasted for sixty-five years. They partnered in their literary pursuits, and after some minor successes in writing songs and plays, they became joint editors of The Beauties of England and Wales, contributing many volumes themselves. Long after gaining fame as a topographer, Brayley continued his work in enameling. In 1823, he was elected a fellow of the Society of Antiquaries. He passed away in London on September 23, 1854. His other works include Sir Reginalde or the Black Tower (1803); Views in Suffolk, Norfolk and Northamptonshire, illustrative of works of Robt. Bloowifield (1806); Lambeth Palace (1806); The History of the Abbey Church of Westminster (2 vols., 1818); Topographical Sketches of Brighthelmstone (1825); Historical and Descriptive Accounts of Theatres of London (1826); Londiniana (1829); History of Surrey (5 vols., 1841-1848).


BRAZIER (from the Fr. brasier, which comes from braise, hot charcoal), a metal receptacle for holding burning coals or charcoal, much used in southern Europe and the East for warming rooms. Braziers are often elegant in form, and highly artistic in ornamentation, with chased or embossed feet and decorated exteriors.

BRAZIER (from the French brasier, which comes from braise, hot charcoal), is a metal container for holding burning coals or charcoal, commonly used in southern Europe and the East to warm rooms. Braziers often have an elegant design and are highly artistic in decoration, featuring detailed feet and decorated surfaces.


BRAZIL, or Brasil, a legendary island in the Atlantic Ocean. The name connects itself with the red dye-woods so called in the middle ages, possibly also applied to other vegetable dyes, and so descending from the Insulae Purpurariae of Pliny. It first appears as the I. de Brazi in the Venetian map of Andrea Bianco (1436), where it is found attached to one of the larger islands of the Azores. When this group became better known and was colonized, the island in question was renamed Terceira. It is probable that the familiar existence of “Brazil” as a geographical name led to its bestowal upon the vast region of South America, which was found to supply dye-woods kindred to those which the name properly denoted. The older memory survived also, and the Island of Brazil retained its place in mid-ocean, some hundred miles to the west of Ireland, both in the traditions of the forecastle and in charts. In J. Purdy’s General Chart of the Atlantic, “corrected to 1830,” the “Brazil Rock (high)” is marked with no indication of doubt, in 51° 10′ N. and 15° 50′ W. In a chart of currents by A.G. Findlay, dated 1853, these names appear again. But in his 12th edition of Purdy’s Memoir Descriptive and Explanatory of the N. Atlantic Ocean (1865), the existence of Brazil and some other legendary islands is briefly discussed and rejected. (See also Atlantis.)

BRAZIL, or Brazil, a legendary island in the Atlantic Ocean. The name is linked to the red dye-woods that were popular in the Middle Ages, and possibly other vegetable dyes, stemming from the Insulae Purpurariae of Pliny. It first shows up as the I. de Brazi on Andrea Bianco's Venetian map from 1436, where it is attached to one of the larger islands of the Azores. As this group became more recognized and settled, the island was renamed Terceira. It’s likely that the widespread use of “Brazil” as a geographical name led to its assignment to the vast area of South America, which was found to have dye-woods similar to those that the name originally described. The older memory persisted, and the Island of Brazil kept its place in the mid-ocean, about a hundred miles west of Ireland, in both maritime traditions and maps. In J. Purdy’s General Chart of the Atlantic, "corrected to 1830," the "Brazil Rock (high)" is marked with certainty, at 51° 10′ N. and 15° 50′ W. This name appears again in an 1853 current chart by A.G. Findlay. However, in his 12th edition of Purdy’s Memoir Descriptive and Explanatory of the N. Atlantic Ocean (1865), the existence of Brazil and other legendary islands is briefly discussed and dismissed. (See also Atlantis.)


BRAZIL, a republic of South America, the largest political division of that continent and the third largest of the western hemisphere. It is larger than the continental United States excluding Alaska, and slightly larger than the great bulk of Europe lying east of France. Its extreme dimensions are 2629 m. from Cape Orange (4° 21′ N.) almost due south to the river Chuy (33° 45′ S. lat.), and 2691 m. from Olinda (Ponta de Pedra, 8° 0′ 57″ S., 34° 50′ W.) due west to the Peruvian frontier (about 73° 50′ W.). The most northerly point, the Serra Roraima on the Venezuela and British Guiana frontier (5° 10′ N.), is 56 m. farther north than Cape Orange. The area, which was augmented by more than 60,000 sq. m. in 1903 and diminished slightly in the boundary adjustment with British Guiana (1904), is estimated to have been 3,228,452 sq. m. in 1900 (A. Supan, Die Bevölkerung der Erde, Gotha, 1904). A subsequent planimetric calculation, which takes into account these territorial changes, increases the area to 3,270,000 sq. m.

BRAZIL, is a republic in South America, the largest political division on the continent and the third largest in the Western Hemisphere. It is larger than the continental United States, not including Alaska, and slightly larger than most of Europe that lies east of France. Its extreme dimensions are 2,629 miles from Cape Orange (4° 21′ N.) almost straight south to the river Chuy (33° 45′ S. latitude), and 2,691 miles from Olinda (Ponta de Pedra, 8° 0′ 57″ S., 34° 50′ W.) directly west to the Peruvian border (about 73° 50′ W.). The most northern point, Serra Roraima on the Venezuela and British Guiana border (5° 10′ N.), is 56 miles further north than Cape Orange. The area, which increased by more than 60,000 square miles in 1903 and decreased slightly due to boundary adjustments with British Guiana (1904), was estimated to be 3,228,452 square miles in 1900 (A. Supan, Die Bevölkerung der Erde, Gotha, 1904). A later planimetric calculation, which considers these territorial changes, raises the area to 3,270,000 square miles.

Boundaries.—Brazil is bounded N. by Colombia, Venezuela and the Guianas, N.E., E. and S.E. by the Atlantic, S. by Uruguay, Paraguay and Bolivia, and W. by Argentina, Paraguay, Bolivia, Peru, Ecuador and Colombia. Its territory 439 touches that of every South American nation, except Chile, and with each one there has been a boundary dispute at some stage in its political life. The Spanish and Portuguese crowns attempted to define the limits between their American colonies in 1750 and 1777, and the lines adopted still serve in great part to separate Brazil from its neighbours. Lack of information regarding the geographical features of the interior, however, led to some indefinite descriptions, and these have been fruitful sources of dispute ever since. The Portuguese were persistent trespassers in early colonial times, and their land-hunger took them far beyond the limits fixed by Pope Alexander VI. In the boundary disputes which have followed, Brazil seems to have pursued this traditional policy, and generally with success.

Boundaries.—Brazil is bordered to the north by Colombia, Venezuela, and the Guianas, to the northeast, east, and southeast by the Atlantic Ocean, to the south by Uruguay, Paraguay, and Bolivia, and to the west by Argentina, Paraguay, Bolivia, Peru, Ecuador, and Colombia. Its territory 439 touches every South American country except Chile, and there has been a boundary dispute with each at some point in its political history. The Spanish and Portuguese crowns tried to set the boundaries between their American colonies in 1750 and 1777, and those lines still largely serve to separate Brazil from its neighbors. However, a lack of information about the geographical features of the interior resulted in some vague descriptions, which have been the source of ongoing disputes ever since. The Portuguese were persistent trespassers in the early colonial period, and their land hunger drove them far beyond the limits set by Pope Alexander VI. In the boundary disputes that followed, Brazil has typically followed this traditional approach, generally with success.

Beginning at the mouth of the Arroyo del Chuy, at the southern extremity of a long sandbank separating Lake Mirim from the Atlantic (33°45′ S. lat.), the boundary line between Brazil and Uruguay passes up that rivulet and across to the most southerly tributary of Lake Mirim, thence down the western shore of that lake to the Jaguarão and up that river to its most southerly source. The line then crosses to the hill-range called Cuchilla de Sant’ Anna, which is followed in a north-west direction to the source of the Cuareim, or Quarahy, this river becoming the boundary down to the Uruguay. This line was fixed by the treaty of 1851, by which the control of Lake Mirim remains with Brazil. Beginning at the mouth of the Quarahy, the boundary line between Brazil and Argentina ascends the Uruguay, crosses to the source of the Santo Antonio, and descends that small stream and the Iguassú to the Paraná, where it terminates. This line was defined by the treaty of 1857, and by the decision of President Cleveland in 1895 with regard to the small section between the Uruguay and Iguassú rivers. The boundary with Paraguay was definitely settled in 1872. It ascends the Paraná to the great falls of Guayrá, or Sete Quedas, and thence westward along the water-parting of the Sierra de Maracayú to the cerro of that name, thence northerly along the Sierra d’Amambay to the source of the Estrella, a small tributary of the Apá, and thence down those two streams to the Paraguay. From this point the line ascends the Paraguay to the mouth of the Rio Negro, the outlet of the Bahia Negra, where the Bolivian boundary begins. As regards the Peruvian boundary, an agreement was reached in 1904 to submit the dispute to the arbitration of the president of Argentina in case further efforts to reach an amicable settlement failed. The provisional line, representing the Brazilian claim, begins at the termination of the Bolivian section (the intersection of the 11th parallel with the meridian of 72° 26′ W. approx.) and follows a semicircular direction north-west and north to the source of the Javary (or Yavary), to include the basins of the Purús and Juruá within Brazilian jurisdiction. The line follows the Javary to its junction with the Amazon, and runs thence north by east direct to the mouth of the Apaporis, a tributary of the Yapurá, in about 1° 30′ S. lat., 69° 20′ W. long., where the Peruvian section ends. The whole of this line, however, was subject to future adjustments, Peru claiming all that part of the Amazon valley extending eastward to the Madeira and lying between the Beni and the east and west boundary line agreed upon by Spain and Portugal in 1750 and 1777, which is near the 7th parallel. With regard to the section between the Amazon and the Apaporis river, already settled between Brazil and Peru, the territory has been in protracted dispute between Peru, Ecuador and Colombia; but a treaty of limits between Brazil and Ecuador was signed in 1901 and promulgated in 1905. The boundary with Colombia, fixed by treaty of April 24, 1907, follows the lower rim of the Amazon basin, as defined by Brazil. The Colombian claim included the left bank of the Amazon eastward to the Auahy or Avahy-paraná channel between the Amazon and Yapurá, whence the line ran northward to the Negro near the intersection of the 66th meridian. The Brazilian line ran north and north-west from the mouth of the Apaporis to the 70th meridian, which was followed to the water-parting south of the Uaupés basin, thence north-east to the Uaupés river, which was crossed close to the 69th meridian, thence easterly along the Serra Tunaji and Isana river to Cuyari, thence northerly up the Cuyari and one of its small tributaries to the Serra Capparro, and thence east and south-east along this range to the Cucuhy rock (Pedra de Cucuhy) on the left bank of the Negro, where the Colombian section ends. Negotiations for the settlement of this controversy, which involved fully one-third of the state of Amazonas, were broken off in 1870, but were resumed in 1905. The boundary with Venezuela, which was defined by a treaty of 1859, runs south-eastward from Cucuhy across a level country intersected by rivers and channels tributary to both the Negro and Orinoco, to the Serra Cupuy watershed which separates the rivers of the Amazon and Orinoco valleys. This watershed includes the ranges running eastward and northward under the names of Imeri, Tapiira-peco, Curupira, Parima and Pacaraima, the Venezuelan section terminating at Mt. Roraima. On the 9th of December 1905 protocols were signed at Caracas accepting the line between Cucuhy and the Serra Cupuy located in 1880, and referring the remainder, which had been located by a Brazilian commission in 1882 and 1884, to a mixed commission for verification.

Starting at the mouth of the Arroyo del Chuy, at the southern end of a long sandbank that separates Lake Mirim from the Atlantic (33°45′ S. lat.), the border between Brazil and Uruguay follows that stream and moves across to the southernmost tributary of Lake Mirim. It then goes down the western shore of that lake to the Jaguarão and up that river to its southernmost source. The line then crosses to the hill range called Cuchilla de Sant’ Anna, which is followed in a northwest direction to the source of the Cuareim, or Quarahy, with this river marking the boundary down to the Uruguay. This line was established by the treaty of 1851, which gave Brazil control of Lake Mirim. Starting at the mouth of the Quarahy, the boundary between Brazil and Argentina goes up the Uruguay, crosses over to the source of the Santo Antonio, and flows down that small stream and the Iguassú to the Paraná, where it ends. This line was determined by the treaty of 1857 and by President Cleveland's decision in 1895 regarding the small section between the Uruguay and Iguassú rivers. The border with Paraguay was finalized in 1872. It goes up the Paraná to the great falls of Guayrá, or Sete Quedas, and then westward along the water divide of the Sierra de Maracayú to the cerro of the same name, then north along the Sierra d’Amambay to the source of the Estrella, a small tributary of the Apá, and then down those two streams to the Paraguay. From this point, the line ascends the Paraguay to the mouth of the Rio Negro, the outlet of the Bahia Negra, where the Bolivian boundary begins. As for the Peruvian boundary, an agreement was reached in 1904 to submit the dispute to the arbitration of the president of Argentina if further efforts to settle it amicably failed. The provisional line, representing the Brazilian claim, starts at the end of the Bolivian section (the intersection of the 11th parallel with the meridian of 72° 26′ W. approx.) and curves northwest and north to the source of the Javary (or Yavary), to include the basins of the Purús and Juruá within Brazilian jurisdiction. The line follows the Javary to where it meets the Amazon and then runs north by east directly to the mouth of the Apaporis, a tributary of the Yapurá, at about 1° 30′ S. lat., 69° 20′ W. long., where the Peruvian section ends. However, the entire line was subject to future adjustments, as Peru claimed all that part of the Amazon valley extending eastward to the Madeira and lying between the Beni and the east-west boundary line agreed upon by Spain and Portugal in 1750 and 1777, which is near the 7th parallel. Regarding the section between the Amazon and the Apaporis river, which has already been settled between Brazil and Peru, the territory has been in protracted dispute involving Peru, Ecuador, and Colombia; but a treaty of limits between Brazil and Ecuador was signed in 1901 and enacted in 1905. The boundary with Colombia, established by the treaty of April 24, 1907, follows the lower edge of the Amazon basin as defined by Brazil. The Colombian claim included the left bank of the Amazon eastward to the Auahy or Avahy-paraná channel between the Amazon and Yapurá, from where the line ran north to the Negro near the intersection of the 66th meridian. The Brazilian line ran north and northwest from the mouth of the Apaporis to the 70th meridian, which was followed to the water divide south of the Uaupés basin, then northeast to the Uaupés river, which was crossed close to the 69th meridian, then east along the Serra Tunaji and Isana river to Cuyari, then north up the Cuyari and one of its small tributaries to the Serra Capparro, and then east and southeast along this range to the Cucuhy rock (Pedra de Cucuhy) on the left bank of the Negro, where the Colombian section ends. Negotiations to resolve this controversy, which involved a third of the state of Amazonas, were suspended in 1870 but resumed in 1905. The boundary with Venezuela, defined by a treaty in 1859, runs southeast from Cucuhy across a flat area crossed by rivers and channels that flow into both the Negro and Orinoco, to the Serra Cupuy watershed which separates the rivers of the Amazon and Orinoco valleys. This watershed includes the ranges extending eastward and northward known as Imeri, Tapiira-peco, Curupira, Parima, and Pacaraima, with the Venezuelan section ending at Mt. Roraima. On December 9, 1905, protocols were signed in Caracas accepting the line between Cucuhy and the Serra Cupuy established in 1880, and referring the remaining sections, which had been located by a Brazilian commission in 1882 and 1884, to a mixed commission for verification.

The disputed boundary between Brazil and British Guiana, which involved the possession of a territory having an estimated area of 12,741 sq. m., was settled by arbitration in 1904 with the king of Italy as arbitrator, the award being a compromise division by which Great Britain received about 7336 sq. m. and Brazil about 5405. The definite boundary line starts from Mt. Roraima and follows the water-parting east and south to the source of the Ireng or Mahu river, which with the Takutú forms the boundary as far south as 1° N. to enclose the basin of the Essequibo and its tributaries, thence it turns east and north of east along the Serra Acaria to unite with the unsettled boundary line of Dutch Guiana near the intersection of the 2nd parallel north with the 56th meridian. Negotiations were initiated in 1905 for the definite location of the boundary with Dutch Guiana. Running north-east and south-east to enclose the sources of the Rio Paru, it unites with the French Guiana line at 2° 10′ N., 55° W., and thence runs easterly along the water-parting of the Serra Tumuc-Humac to the source of the Oyapok, which river is the divisional line to the Atlantic coast. The boundary with French Guiana (see Guiana), which had long been a subject of dispute, was settled by arbitration in 1900, the award being rendered by the government of Switzerland. The area of the disputed territory was about 34,750 sq. m.

The disputed border between Brazil and British Guiana, which involved a territory estimated to be 12,741 sq. miles, was resolved through arbitration in 1904, with the King of Italy acting as the arbitrator. The decision was a compromise division, where Great Britain received about 7,336 sq. miles and Brazil got about 5,405. The official boundary line starts from Mt. Roraima and follows the watershed east and south to the source of the Ireng or Mahu River, which, along with the Takutú, marks the boundary down to 1° N, enclosing the basin of the Essequibo and its tributaries. From there, the border turns east and northeast along the Serra Acaria to connect with the undecided boundary line of Dutch Guiana near where the 2nd parallel north intersects the 56th meridian. Negotiations began in 1905 to establish the exact location of the boundary with Dutch Guiana. It runs northeast and southeast to surround the sources of the Rio Paru, meeting the French Guiana line at 2° 10′ N, 55° W, and then extends east along the ridge of the Serra Tumuc-Humac to the source of the Oyapok, which serves as the dividing line to the Atlantic coast. The boundary with French Guiana (see Guiana), which had been a long-standing issue, was resolved through arbitration in 1900, with the decision made by the Swiss government. The area of the disputed territory was about 34,750 sq. miles.

Physical Geography.—A relief map of Brazil shows two very irregular divisions of surface: the great river basins, or plains, of the Amazon-Tocantins and La Plata, which are practically connected by low elevations in Bolivia, and a huge, shapeless mass of highlands filling the eastern projection of the continent and extending southward to the plains of Rio Grande do Sul and westward to the Bolivian frontier. Besides these there are a narrow coastal plain, the low plains of Rio Grande do Sul, and the Guiana highlands on the northern slope of the Amazon basin below the Rio Negro.

Physical Geography.—A relief map of Brazil shows two very uneven types of terrain: the vast river basins, or plains, of the Amazon-Tocantins and La Plata, which are almost linked by low elevations in Bolivia, and a massive, irregular area of highlands that fills the eastern part of the continent and extends south to the plains of Rio Grande do Sul and west to the Bolivian border. In addition to these, there’s a narrow coastal plain, the low plains of Rio Grande do Sul, and the Guiana highlands on the northern slope of the Amazon basin below the Rio Negro.

The coastal plain consists in great part of sandy beaches, detritus formations, and partially submerged areas caused by uplifted beaches and obstructed river channels. Mangrove swamps, lagoons and marshes, with inland canals following the Relief. coast line for long distances, are characteristic features of a large extent of the Brazilian coast. Parts of this coastal plain, however, have an elevation of 100 to 200 ft., are rolling and fertile in character, and terminate on the coast in a line of bluffs. In the larger depressions, like that of the Reconcavo of Bahia, there are large alluvial areas celebrated for their fertility. This plain is of varying width, and on some parts of the coast it disappears altogether. In Rio Grande do Sul, where two large lakes have been created by uplifted sand beaches, the coastal plain widens greatly, and is merged in an extensive open, rolling grassy plain, traversed by ridges of low hills (cuchillas), similar to the neighbouring republic of Uruguay. The western part of this plain is drained by the Uruguay and its tributaries, which places it within the river Plate (La Plata) basin.

The coastal plain mainly consists of sandy beaches, debris formations, and partially submerged areas created by elevated beaches and blocked river channels. Mangrove swamps, lagoons, and marshes, with inland canals following the coastline for long stretches, are common features along a large portion of the Brazilian coast. However, some sections of this coastal plain are elevated between 100 and 200 ft., rolling, and fertile, ending at the coast with a line of bluffs. In larger depressions, like the Reconcavo of Bahia, there are extensive alluvial areas known for their fertility. This plain varies in width and disappears entirely in some coastal sections. In Rio Grande do Sul, where two large lakes have formed from raised sand beaches, the coastal plain expands significantly and merges into a wide, open, rolling grassy plain, crossed by low hill ridges (cuchillas), similar to the neighboring Republic of Uruguay. The western part of this plain is drained by the Uruguay River and its tributaries, placing it within the Río de la Plata basin.

The two great river basins of the Amazon-Tocantins and La Plata comprise within themselves, approximately, three-fifths of the total area of Brazil. Large areas of these great river plains are annually flooded, the flood-plains of the Amazon extending nearly across the whole country and comprising thousands of square miles. The Amazon plain is heavily forested and has a slope of less than one inch to the mile within Brazilian territory—one competent authority placing it at about one-fifth of an inch per mile. The La Plata basin 440 is less heavily wooded, its surface more varied, and its Brazilian part stands at a much higher elevation.

The two major river basins of the Amazon-Tocantins and La Plata make up about three-fifths of Brazil's total area. Large sections of these vast river plains flood every year, with the floodplains of the Amazon stretching nearly across the entire country and covering thousands of square miles. The Amazon plain is densely forested and has a slope of less than an inch per mile within Brazilian territory—one expert estimating it at about one-fifth of an inch per mile. The La Plata basin 440 is less densely forested, has a more varied surface, and its part in Brazil is at a significantly higher elevation.

Of the two highland regions of Brazil, that of the northern slope of the Amazon basin belongs physically to the isolated mountain system extending eastward from the Negro and Orinoco to the Atlantic, the water-parting of which forms the boundary line between the Guianas and Brazil. The culminating point is near the western extremity of this chain and its altitude is estimated at 8500 ft. The ranges gradually diminish in elevation towards the east, the highest point of the Tumuc-Humac range, on the frontier of French Guiana, being about 2600 ft. The Brazilian plateau slopes southward and eastward, traversed by broken ranges of low mountains and deeply eroded by river courses. The table-topped hills of Almeyrin (or Almeirim) and Ereré, which lie near the lower Amazon and rise to heights of 800 and 900 ft., are generally considered the southernmost margin of this plateau, though Agassiz and others describe them as remains of a great sandstone sheet which once covered the entire Amazon valley. Its general elevation has been estimated to be about 2000 ft. It is a stony, semi-arid region, thinly wooded, having good grazing campos in its extreme western section. Its semi-arid character is due to the mountain ranges on its northern frontier, which extract the moisture from the north-east trades and leave the Brazilian plateau behind them with a very limited rainfall, except near the Atlantic coast. The more arid districts offer no inducement for settlement and are inhabited only by a few roving bands of Indians, but there were settlements of whites in the grazing districts of the Rio Branco at an early date, and a few hundreds of adventurers have occupied the mining districts of the east. In general, Brazilian Guiana, as this plateau region is sometimes called, is one of the least attractive parts of the republic.

Of the two highland regions in Brazil, the northern slope of the Amazon basin is part of the isolated mountain system that extends eastward from the Negro and Orinoco rivers to the Atlantic. This water divide forms the boundary between the Guianas and Brazil. The highest point is near the western end of this chain, with an elevation estimated at 8,500 feet. The mountain ranges gradually get lower as they move east, with the highest point of the Tumuc-Humac range, on the border of French Guiana, being about 2,600 feet. The Brazilian plateau slopes southward and eastward, intersected by broken low mountain ranges and deeply cut by river paths. The flat-topped hills of Almeyrin (or Almeirim) and Ereré, located near the lower Amazon and rising to heights of 800 and 900 feet, are generally considered the southern edge of this plateau, though Agassiz and others describe them as remnants of a vast sandstone layer that once covered the entire Amazon valley. Its overall elevation is estimated to be about 2,000 feet. This area is rocky and semi-arid, with sparse trees and good grazing lands in the far western section. Its semi-arid nature is due to the mountain ranges to the north, which capture moisture from the northeast trade winds and leave the Brazilian plateau with very little rainfall, except near the Atlantic coast. The drier areas are not appealing for settlement and are only inhabited by a few wandering bands of Indigenous people. However, there were white settlements in the grazing regions of the Rio Branco early on, and a few hundred adventurers have settled in the mining areas of the east. Overall, Brazilian Guiana, as this plateau region is sometimes called, is one of the less appealing parts of the republic.

The great Brazilian plateau, which is the most important physical division of Brazil, consists of an elevated tableland 1000 to 3000 ft. above the sea-level, traversed by two great mountain systems, and deeply eroded and indented by numerous rivers. A thick sandstone sheet once covered the greater part if not all of it, remains of which are found on the elevated chapadas of the interior and on isolated elevations extending across the republic toward its western frontier. These chapadas and elevations, which are usually described as mountain ranges, are capped by horizontal strata of sandstone and show the original surface, which has been worn away by the rivers, leaving here and there broad flat-topped ridges between river basins and narrower ranges of hills between river courses. From the valleys their rugged, deeply indented escarpments, stretching away to the horizon, have the appearance of a continuous chain of mountains. The only true mountain systems, however, so far as known, are the two parallel ranges which follow the contour of the coast, and the central, or Goyana, system. The first consists of an almost continuous range crossing the northern end of Rio Grande do Sul and following the coast northward to the vicinity of Cape Frio, and thence northward in broken ranges to the vicinity of Cape St Roque, and a second parallel range running from eastern São Paulo northeast and north to the eastern margin of the São Francisco basin in northern Bahia, where that river turns eastward to the Atlantic. The first of these is generally known as the Serra do Mar, or Coast Range, though it is locally known under many names. Its culminating point is in the Organ Mountains (Serra dos Orgãos), near Rio de Janeiro, which reaches an elevation of 7323 ft. The inland range, which is separated from the Coast Range in the vicinity of Rio de Janeiro by the valley of the Parahyba do Sul river, is known as the Serra da Mantiqueira, and from the point where it turns northward to form the eastern rim of the São Francisco basin, as the Serra do Espinhaço. This range is also known under various local names. Its culminating point is toward the western extremity of the Mantiqueira range where the Itatiaya, or Itatiaia-assu, peak rises to an elevation of 8898 ft. (other measurements give 9823 ft.), probably the highest summit in Brazil. This range forms the true backbone of the maritime mountainous belt and rises from the plateau itself, while the Coast Range rises on its eastern margin and forms a rim to the plateau. North of Cape Frio the Coast Range is much broken and less elevated, while the Serra do Espinhaço takes a more inland course and is separated from the coast by great gently-sloping, semi-barren terraces. The second system—the Central or Goyana—consists of two distinct chains of mountains converging toward the north in the elevated chapadão between the Tocantins and São Francisco basins. The eastern range of this central system, which crosses western Minas Geraes from the so-called Serra das Vertentes to the valley of the Paracatú, a western tributary of the São Francisco, is called the Serra da Canastra and Serra da Matta da Corde. Its culminating point is toward its southern extremity in the Serra da Canastra, 4206 ft. above sea-level. The western range, or what is definitely known of it, runs across southern Goyaz, south-west to north-east, and forms the water-parting between the Paraná and Tocantins-Araguaya basins. Its culminating point is in the Montes Pyreneos, near the city of Goyaz, and is about 4500 ft. above sea-level.

The great Brazilian plateau, the most significant physical feature of Brazil, is an elevated tableland between 1,000 and 3,000 ft. above sea level, crossed by two major mountain systems and deeply eroded by numerous rivers. A thick layer of sandstone used to cover most, if not all, of it, with remnants found on the elevated chapadas of the interior and on isolated elevations extending across the country toward the western border. These chapadas and elevations, often called mountain ranges, are topped by horizontal layers of sandstone and reveal the original surface, which has been worn down by rivers, leaving wide flat-topped ridges between river basins and narrower hills between river courses. From the valleys, their rugged, deeply indented cliffs, stretching to the horizon, appear to form a continuous chain of mountains. However, the only true mountain ranges known so far are the two parallel ranges along the coast and the central, or Goyana, system. The first consists of a nearly continuous range crossing the northern part of Rio Grande do Sul and following the coast northward to the area near Cape Frio, then continuing north in fragmented sections to around Cape St. Roque, and a second parallel range running from eastern São Paulo northeast and north to the eastern edge of the São Francisco basin in northern Bahia, where the river turns eastward to the Atlantic. The first of these is generally called the Serra do Mar, or Coast Range, although it has many local names. Its highest point is in the Organ Mountains (Serra dos Orgãos), near Rio de Janeiro, which reaches an elevation of 7,323 ft. The inland range, which is separated from the Coast Range near Rio de Janeiro by the valley of the Parahyba do Sul river, is known as the Serra da Mantiqueira, and from the point where it turns northward to outline the eastern edge of the São Francisco basin, it is called the Serra do Espinhaço. This range also has various local names. Its highest point is near the western end of the Mantiqueira range, where the Itatiaya, or Itatiaia-assu, peak rises to about 8,898 ft. (some measurements indicate 9,823 ft.), likely the highest peak in Brazil. This range forms the true backbone of the mountainous coastal belt and rises from the plateau itself, while the Coast Range rises along its eastern edge and forms a rim around the plateau. North of Cape Frio, the Coast Range is much more fragmented and lower in elevation, while the Serra do Espinhaço takes a more inland path and is separated from the coast by large, gently sloping, semi-barren terraces. The second system—the Central or Goyana—consists of two distinct chains of mountains converging to the north in the elevated chapadão between the Tocantins and São Francisco basins. The eastern range of this central system, which crosses western Minas Gerais from the so-called Serra das Vertentes to the valley of the Paracatú, a western tributary of the São Francisco, is called the Serra da Canastra and Serra da Matta da Corde. Its highest point is toward its southern end in Serra da Canastra, at 4,206 ft. above sea level. The western range, or what is known of it, crosses southern Goiás, southwest to northeast, forming the divide between the Paraná and Tocantins-Araguaya basins. Its highest point is in the Montes Pyreneos, near the city of Goiás, and is about 4,500 ft. above sea level.

The great part of this immense region consists of chapadões, as the larger table-land areas are called, chapadas or smaller sections of the same, and broadly excavated river valleys. How extensive this work of erosion has been may be seen in the Tocantins-Araguaya basin, where a great pear-shaped depression, approximately 100 to 500 m. wide, 700 m. long, and from 1000 to 1500 ft. deep, has been excavated northward from the centre of the plateau. Southward the Paraná has excavated another great basin and eastward the São Francisco another. Add to these the eroded river basins of the Xingú, Tapajós and Guaporé on the north and west, the Paraguay on the south-west, and the scores of smaller rivers along the Atlantic coast, and we may have some conception of the agencies that have been at work in breaking down and shaping this great table-land, perhaps the oldest part of the continent. The most southern of these chapadões, that of the Paraná basin, in which may be included the northern part of the Uruguay and eastern part of the Paraguay basins, includes the greater part of the states of Rio Grande do Sul, Santa Catharina, Paraná and São Paulo, the south-western corner of Minas Geraes, a part of southern Goyaz, and the south-eastern corner of Matto Grosso. The greatest elevation is on its eastern or Atlantic margin where the average is about 3280 ft. above sea-level. The plateau breaks down abruptly toward the sea, and slopes gradually some hundreds of feet toward the south and west. There has been considerable denudation toward the west, the eastern tributaries of the Paraná rising very near the coast. The northern and western parts of this plateau have an average elevation a little less than that of the Atlantic margin, and their slopes are toward the south and east, those of Goyaz and Matto Grosso being abrupt and deeply eroded. This great chapadão is in many respects the best part of Brazil, having a temperate climate, extensive areas of fertile soil, rich forests and a regular rainfall. Its Atlantic slopes are heavily wooded, but the western slopes exhibit grass-covered campos between the river courses. The São Francisco chapadão, which has a general elevation of about 2600 ft., covers the greater part of the states of Minas Geraes and Bahia, and a small part of western Pernambuco, and might also be considered continuous with those of the Parnahyba and Tocantins-Araguaya basins. This region is more tropical in character, partially barren, and has an uncertain rainfall, a large part of the São Francisco basin and the upper Atlantic slope of its eastern rim being subject to long-continued droughts. This region is well wooded along the river courses of Minas Geraes, the lower Atlantic slopes of Bahia, which are perhaps outside the plateau proper, and on the weather side of some of the elevated ridges where the rainfall is heavy and regular. It has extensive campos and large areas of exposed rock and stony steppes, but is richly provided with mineral deposits. It breaks down less abruptly toward the Atlantic, the slopes in Bahia being long and gradual. The Parnahyba chapadão covers the state of Piauhy, the southern part of Maranhão, and the western part of Ceará. Its general elevation is less than that of the São Francisco region, owing to the slope of the plateau surface toward the Amazon depression and to denudation. It resembles the São Francisco region in its uncertain rainfall and exposure to droughts, and in having large areas of campos suitable for grazing purposes. It is thinly wooded, except in the north, where the climatic conditions approach those of the Amazon valley. Its climate is more tropical and its development has gone forward less rapidly than in the more temperate regions of the south. The Amazonian chapadão, which includes the remainder of the great Brazilian plateau west of the São Francisco and Parnahyba regions and which appears to be the continuation of these tablelands westward, is much the largest of these plateau divisions. It covers the greater part of the states of Matto Grosso and Goyaz, a large part of southern Pará, the southern margin of Amazonas, and a considerable part of western Maranhão. It includes the river basins of the Tocantins-Araguaya, Xingú, Tapajós, and the eastern tributaries of the Guaporé-Madeira. A considerable part of it has been excavated by these rivers to a level which gives their valleys the elevation and character of lowlands, though isolated hills and ranges with the characteristic overlying horizontal sandstone strata of the ancient plateau show that it was once a highland region. The southern margin of this plateau breaks down abruptly toward the south and overlooks the Paraná and Paraguay basins from elevations of 2600 to 3000 ft. There is great diversity in the character and appearance of this extensive region. It lies wholly within the tropics, though its more elevated districts enjoy a temperate climate. Its chapadas are covered with extensive campos, its shallow valleys with open woodlands, and its deeper valleys with heavy forests. The rainfall is good, but not heavy. The general slope is toward the Amazon, and its rivers debouch upon the Amazonian plain through a succession of falls and rapids.

The main part of this vast area consists of chapadões, which are the larger flatland regions, chapadas, or smaller sections of these, and widely eroded river valleys. The extent of this erosion can be seen in the Tocantins-Araguaya basin, where a large pear-shaped depression, about 100 to 500 meters wide, 700 meters long, and 1000 to 1500 feet deep, has been carved out northward from the center of the plateau. To the south, the Paraná has created another large basin, and to the east, the São Francisco has formed one as well. If we add the eroded river basins of the Xingú, Tapajós, and Guaporé in the north and west, the Paraguay to the southwest, and numerous smaller rivers along the Atlantic coast, we can grasp some idea of the forces that have worked to shape and reshape this vast table-land, perhaps the oldest part of the continent. The southernmost of these chapadões, located in the Paraná basin, which includes the northern part of the Uruguay and eastern part of the Paraguay basins, encompasses most of the states of Rio Grande do Sul, Santa Catarina, Paraná, and São Paulo, the southwestern corner of Minas Gerais, part of southern Goiás, and the southeastern corner of Mato Grosso. The highest point is on its eastern or Atlantic edge, where the average elevation is about 3280 feet above sea level. The plateau drops steeply toward the sea and gradually slopes down several hundred feet to the south and west. There has been significant erosion to the west, with the eastern tributaries of the Paraná starting very close to the coast. The northern and western parts of this plateau are generally a bit lower than the Atlantic margin, and their slopes head toward the south and east, with those in Goiás and Mato Grosso being steep and deeply eroded. This vast chapadão is, in many respects, the best part of Brazil, featuring a temperate climate, large areas of fertile soil, rich forests, and consistent rainfall. Its Atlantic slopes are heavily forested, while the western slopes display grasslands known as campos between the river channels. The São Francisco chapadão, which has an average elevation of about 2600 feet, covers most of the states of Minas Gerais and Bahia, with a small portion of western Pernambuco, and could also be seen as connected with those of the Parnahyba and Tocantins-Araguaya basins. This area is more tropical in nature, somewhat barren, and has unpredictable rainfall, with much of the São Francisco basin and the upper Atlantic slope on its eastern edge facing long periods of drought. This region is well-wooded along the riverbanks of Minas Gerais and the lower Atlantic slopes of Bahia, which may lie just outside the main plateau, and on the windward side of some higher ridges where the rainfall is substantial and regular. It has extensive campos and large stretches of exposed rock and rocky steppes, yet is rich in mineral resources. The drop to the Atlantic is less steep, with longer and more gradual slopes in Bahia. The Parnahyba chapadão spans the state of Piauí, the southern part of Maranhão, and the western part of Ceará. Its overall elevation is lower than that of the São Francisco region due to the slope of the plateau surface toward the Amazon depression and erosion. It is similar to the São Francisco region in its unpredictable rainfall and susceptibility to droughts and features large areas of campos suitable for grazing. It's sparsely wooded except in the north, where the climate resembles that of the Amazon valley. Its climate is more tropical, and its development has progressed more slowly than in the more temperate southern areas. The Amazonian chapadão, which encompasses the rest of the large Brazilian plateau west of the São Francisco and Parnahyba regions and seems to continue these tablelands westward, is by far the largest of these plateau divisions. It covers most of the states of Mato Grosso and Goiás, much of southern Pará, the southern edge of Amazonas, and a significant portion of western Maranhão. It includes the river basins of the Tocantins-Araguaya, Xingú, Tapajós, and the eastern tributaries of the Guaporé-Madeira. A significant part of it has been carved by these rivers to a height that gives their valleys the features of lowlands, though isolated hills and ranges with the characteristic horizontal sandstone layers of the ancient plateau indicate it was once a highland area. The southern edge of this plateau drops steeply to the south and overlooks the Paraná and Paraguay basins from heights of 2600 to 3000 feet. There is great variation in the character and landscape of this extensive region. It lies entirely within the tropics, although its higher areas enjoy a temperate climate. Its chapadas are covered in vast campos, its shallow valleys have open woodlands, and its deeper valleys are filled with dense forests. The rainfall is good but not heavy. The general decline is toward the Amazon, and its rivers flow into the Amazonian plain through a series of waterfalls and rapids.

There remains only the elevated valley of the Parahyba do Sul, lying between the so-called Serra das Vertentes of southern Minas Geraes and the Serra do Mar, and extending from the Serra da Bocaina, near the city of São Paulo, eastward to Cape Frio and the coastal plain north of that point. It includes a small part of eastern São Paulo, the greater part of the state of Rio de Janeiro, a small corner of Espirito Santo, and a narrow strip along the southern border of Minas Geraes. It is traversed by two mountain chains, the Serra da Mantiqueira and Serra do Mar, and the broad, fertile valley of the Parahyba do Sul which lies between them, and which slopes gently toward the east from a general elevation exceeding 2000 ft. in São Paulo. This region is the smallest of the chapadão divisions of the great plateau, and might be considered either a southward extension of the São Francisco or an eastward extension of the Paraná chapadão. It is one of the most favoured regions of 441 Brazil, having an abundant rainfall, extensive forests of valuable timber, and large areas of fertile soil. The mountain slopes are still masses of dense forest, though their lower elevations and neighbouring valleys have been cleared for cultivation and by dealers in rosewood and other valuable woods. This elevated valley is noted for its fertility and was once the principal coffee-producing district of Brazil.

There’s only the high valley of the Parahyba do Sul, which lies between the Serra das Vertentes in southern Minas Gerais and the Serra do Mar, stretching from the Serra da Bocaina near São Paulo to Cape Frio and the coastal plain north of that area. It includes a small part of eastern São Paulo, most of Rio de Janeiro, a little corner of Espírito Santo, and a narrow strip along the southern border of Minas Gerais. Two mountain ranges, the Serra da Mantiqueira and Serra do Mar, cross through it, along with the wide, fertile valley of the Parahyba do Sul that sits between them and slopes gently eastward from an average elevation of over 2000 ft in São Paulo. This region is the smallest of the chapadão divisions of the great plateau and could be seen as a southern extension of the São Francisco or an eastern extension of the Paraná chapadão. It's one of the most favored areas in Brazil, featuring abundant rainfall, extensive forests of valuable timber, and vast stretches of fertile soil. The mountain slopes are still covered with dense forests, although the lower elevations and nearby valleys have been cleared for farming and by traders of rosewood and other sought-after woods. This high valley is known for its fertility and was once the main coffee-producing area in Brazil.

Outside the two great river systems of the Amazon and river Plate (Rio de la Plata), which are treated under their respective titles, the rivers of Brazil are limited to the numerous small streams and three or four large rivers which flow Rivers. eastward from the plateau regions directly into the Atlantic. The Amazon system covers the entire north-western part of the republic, the state of Amazonas, nearly the whole of Pará and the greater part of Matto Grosso being drained by this great river and its tributaries. If the Tocantins-Araguaya basin is included in the hydrographic system, the greater part of Goyaz and a small part of Maranhão should be added to this drainage area. The Tocantins is sometimes treated as a tributary of the Amazon because its outlet, called the Rio Pará, is connected with that great river by a number of inland channels. It is an entirely separate river, however, and the inland communication between them is due to the slight elevation of the intervening country above their ordinary levels and to the enormous volume of water brought down by the Amazon, especially in the flood season. As the outlet of the Tocantins is so near to that of the Amazon, and their lower valleys are conterminous, it is convenient to treat them as parts of the same hydrographic basin.

Outside of the two major river systems, the Amazon and the Rio de la Plata, which are discussed under their own sections, the rivers of Brazil mostly consist of many small streams and a few large rivers that flow eastward from the plateau regions directly into the Atlantic Ocean. The Amazon system drains the entire northwestern part of the country, with the state of Amazonas, nearly all of Pará, and most of Mato Grosso being served by this enormous river and its tributaries. If we include the Tocantins-Araguaya basin in this hydrographic system, then most of Goiás and a small portion of Maranhão should also be considered part of this drainage area. The Tocantins is sometimes considered a tributary of the Amazon because its outlet, known as the Rio Pará, connects to the Amazon through various inland channels. However, it is a completely separate river, and the inland connection between them exists because of the slight elevation of the land between their usual levels and the massive volume of water that the Amazon carries, especially during flood season. Since the Tocantins' outlet is so close to that of the Amazon, and their lower valleys are adjacent, it's practical to consider them parts of the same hydrographic basin.

In the extreme north-east corner of the republic where the Brazilian Guiana plateau slopes toward the Atlantic there is a small area lying outside the drainage basin of the Amazon. Its rivers flow easterly into the Atlantic and drain a triangular-shaped area of the plateau lying between the northern frontier and the southern and western watersheds of the Araguary, whose extreme limits are about 0° 30′ N. lat. and 53° 50′ W. long. The more important of these rivers are the Araguary, Amapá, Calçoene, Cassiporé and Oyapok. The Araguary rises in the Tumuc-Humac mountains, in about 2° 30′ N. lat., 52° 10′ W. long., and follows a tortuous course south and north-east to the Atlantic. Its largest tributary, the Amapary, rises still farther west. Little is known of the country through which it flows, and its channel is broken by rapids and waterfalls where it descends to the coastal plain. The Amapá is a short river rising on the eastern slopes of the same range and flowing across a low, wooded plain, filled with lagoons. The Calçoene and Cassiporé enter the Atlantic farther north and have a north-east course across the same plain. All these small rivers are described as auriferous and have attracted attention for this reason. The Oyapok, or Vicente Pinzon, is the best-known of the group and forms the boundary line between Brazil and French Guiana under the arbitration award of 1900. It rises in about 2° 05′ N., 53° 48′ W., and flows easterly and north-easterly to the Atlantic. Its course is less tortuous than that of the Araguary.

In the far northeast corner of the republic, where the Brazilian Guiana plateau slopes down toward the Atlantic, there's a small area that isn't part of the Amazon drainage basin. Its rivers flow east into the Atlantic, draining a triangular-shaped section of the plateau that's situated between the northern border and the southern and western watersheds of the Araguary, whose outer limits are about 0° 30′ N latitude and 53° 50′ W longitude. The primary rivers in this area include the Araguary, Amapá, Calçoene, Cassiporé, and Oyapok. The Araguary starts in the Tumuc-Humac mountains, around 2° 30′ N latitude, 52° 10′ W longitude, and winds its way south and northeast to the Atlantic. Its largest tributary, the Amapary, begins even further west. Not much is known about the land it traverses, and its route is interrupted by rapids and waterfalls as it descends toward the coastal plain. The Amapá is a short river that rises on the eastern slopes of the same mountain range and flows through a low, wooded plain filled with lagoons. The Calçoene and Cassiporé flow into the Atlantic farther north, taking a northeast trajectory across the same plain. All of these smaller rivers are known to contain gold, which has drawn interest for that reason. The Oyapok, also known as Vicente Pinzon, is the most well-known river in this group and forms the boundary between Brazil and French Guiana as per the arbitration award of 1900. It starts around 2° 05′ N, 53° 48′ W and flows east and northeast to the Atlantic. Its path is less winding compared to that of the Araguary.

The rivers of the great Brazilian plateau which flow directly to the Atlantic coast may be divided into two classes: those of its northward slope which flow in a northerly and north-easterly direction to the north-east coast of the republic, and those which drain its eastern slope and flow to the sea in an easterly direction. The former reach the coastal plain over long and gradual descents, and are navigable for considerable distances. The latter descend from the plateau much nearer the coast, and are in most cases navigable for short distances only. In both classes navigation is greatly impeded by sandbars at the mouths of these rivers, while in the districts of periodical rainfall it is greatly restricted in the dry season. The more important rivers of the first division, which are described in more detail under the titles of the Brazilian states through which they flow, are the following: the Gurupy, Tury-assú, Mearim, Itapicurú and Balsas, in the state of Maranhão; the Parnahyba and its tributaries in Piauhy; Jaguaribe in Ceará; and the Apody and Piranhas in Rio Grande do Norte. Of these the Parnahyba is the most important, having a total length of about 900 m., broken at intervals by rapids and navigable in sections. It receives only one important tributary from Maranhão—the Rio das Balsas, 447 m. long—and five from Piauhy, the Urussuhy-assú, Gurgueia, Canindé, Poty and Longa. Piauhy is wholly within its drainage basin, although the river forms the boundary line between that state and Maranhão throughout its entire length. All the rivers in this division are influenced by the periodical character of the rainfall, their navigable channels being greatly shortened in the dry season (August-January). In Ceará the smaller rivers become dry channels in the dry season, and in protracted droughts the larger ones disappear also.

The rivers of the vast Brazilian plateau that flow directly to the Atlantic coast can be categorized into two types: those on the northward slope that head northeast toward the northeastern coast of the country, and those that drain the eastern slope and flow eastward to the sea. The first group reaches the coastal plain through long, gentle descents and can be navigated for significant distances. The second group descends from the plateau much closer to the coast and generally can only be navigated for short stretches. In both types, navigation is significantly hindered by sandbars at the river mouths, and in areas with seasonal rainfall, it is greatly restricted during the dry season. The main rivers in the first category, which are described in more detail under the titles of the Brazilian states they flow through, include the Gurupy, Tury-assú, Mearim, Itapicurú, and Balsas in Maranhão; the Parnahyba and its tributaries in Piauhy; Jaguaribe in Ceará; and the Apody and Piranhas in Rio Grande do Norte. Among these, the Parnahyba is the most significant, with a total length of about 900 km, interrupted by rapids and navigable in sections. It has one major tributary from Maranhão—the Rio das Balsas, 447 km long—and five from Piauhy: the Urussuhy-assú, Gurgueia, Canindé, Poty, and Longa. Piauhy is completely within its drainage basin, even though the river serves as the boundary line between that state and Maranhão for its entire length. All the rivers in this group are affected by the seasonal nature of the rainfall, with their navigable channels significantly reduced during the dry season (August-January). In Ceará, the smaller rivers turn into dry beds in the dry season, and during prolonged droughts, the larger rivers also vanish.

The rivers of the second division are included in a very great extension of coast and are influenced by wide differences in climate. Their character is also determined by the distance of the Serra do Mar from the coast, the more southern rivers having short precipitous courses. The more northern rivers are subject to periodical variations in volume caused by wet and dry seasons, but the greater distance of the coast range and the more gradual breaking down of the plateau toward the sea, give them longer courses and a greater extent of navigable water. North of the São Francisco the watershed projecting from the plateau eastward toward Cape St Roque, known as the Serra da Borborema in Parahyba and Rio Grande do Norte where its direction becomes north-east, leaves a triangular section of the easterly slope in which the river courses are short and much broken by rapids. The rainfall, also, is limited and uncertain. The largest of this group of small rivers is the Parahyba do Norte, belonging to the state of Parahyba, whose length is said to be less than 200 m., only 5 or 6 m. of which are navigable for small steamers. The São Francisco, which belongs to the inland plateau region, is the largest river of the eastern coast of Brazil and exists by virtue of climatic conditions wholly different from those of the coast where it enters the Atlantic. The tributaries of the lower half of this great river, which belong to the Atlantic coast region, are small and often dry, but the upper river where the rainfall is heavier and more regular receives several large affluents. The river is navigable up to the Paulo Affonso falls, 192 m. from the coast, and above the falls there is a much longer stretch of navigable water.

The rivers in the second division are part of a vast coastal area and are affected by significant climate variations. Their characteristics are also influenced by how far the Serra do Mar is from the coast, with the southern rivers having short, steep paths. The northern rivers experience seasonal changes in water volume due to wet and dry seasons, but their greater distance from the coastal range and the more gradual decline of the plateau towards the sea provide them with longer routes and more navigable waters. North of the São Francisco, the watershed that extends from the plateau eastward towards Cape St. Roque, known as the Serra da Borborema in Parahyba and Rio Grande do Norte—where its direction shifts northeast—creates a triangular section on the eastern slope where river paths are short and fragmented by rapids. Rainfall in this area is also limited and unpredictable. The largest river in this group of smaller rivers is the Parahyba do Norte, located in the state of Parahyba, which is less than 200 km long, with only 5 or 6 km navigable by small steamers. The São Francisco, which is part of the inland plateau region, is the largest river on Brazil's eastern coast and is sustained by climatic conditions that are completely different from those where it meets the Atlantic. The tributaries in the lower part of this significant river, which belong to the Atlantic coastal region, are small and often dry, while the upper river, where rainfall is heavier and more consistent, receives several large tributaries. The river can be navigated up to the Paulo Affonso falls, which are 192 km from the coast, and above the falls, there is a much longer stretch of navigable water.

From the São Francisco to Cape Frio there are many short rivers rising on the slopes of the plateau and crossing the narrow coastal plain to the sea. There are also a few of greater length which rise far back on the plateau itself and flow down to the plain through deeply cut, precipitous courses. The navigable channels of these rivers are restricted to the coastal plain, except where a river has excavated for itself a valley back into the plateau. The more important of these rivers are the Itapicurú, Paraguassú, Contas or Jussiape, Pardo or Patype, and Jequitinhonha, of Bahia; the Mucury, and Doce, of Espirito Santo; and the Parahyba do Sul of the state of Rio de Janeiro. Of the Bahia group, the Jequitinhonha, sometimes called the Belmonte on its lower course, is the longest and most important, rising near Serro in the state of Minas Geraes and flowing in a curving north-east direction for a distance of about 500 m., 84 of which are navigable inland from the sea. The Mucury and Doce also rise in Minas Geraes, and are much broken in their descent to the lower plains, the former having a navigable channel of 98 m. and the latter of 138 m. The Parahyba, or Parahyba do Sul, which enters the sea about 30 m. north of Cape S. Thomé, is the largest and most important of the Atlantic coast rivers south of the São Francisco. It rises on an elevated tableland in the state of São Paulo and flows across the state of Rio de Janeiro from west to east, through a broad fertile valley producing coffee in its most elevated districts and sugar on its alluvial bottom-lands nearer the sea. It has a total length of 658 m., 57 of which are navigable between S. Fidelis and its mouth, and about 90 m. of its upper course.

From the São Francisco to Cape Frio, there are many short rivers that originate on the slopes of the plateau and flow across the narrow coastal plain to the sea. There are also a few longer rivers that start further back on the plateau itself and descend to the plain through steep, narrow valleys. The navigable sections of these rivers are confined to the coastal plain, except where a river has carved out a valley into the plateau. The main rivers in this area include the Itapicurú, Paraguassú, Contas or Jussiape, Pardo or Patype, and Jequitinhonha in Bahia; the Mucury and Doce in Espirito Santo; and the Parahyba do Sul in the state of Rio de Janeiro. Among the rivers from Bahia, the Jequitinhonha, sometimes referred to as the Belmonte in its lower section, is the longest and most significant, starting near Serro in the state of Minas Gerais and winding northeast for about 500 km, 84 of which are navigable inland from the sea. The Mucury and Doce also originate in Minas Gerais and have rugged paths as they descend to the lower plains, with the former having a navigable stretch of 98 km and the latter 138 km. The Parahyba, or Parahyba do Sul, which flows into the sea about 30 km north of Cape S. Thomé, is the largest and most important river on the Atlantic coast south of the São Francisco. It begins in an elevated plateau in the state of São Paulo and crosses the state of Rio de Janeiro from west to east, through a wide fertile valley that grows coffee in its higher areas and sugar on its richer lowlands near the coast. It has a total length of 658 km, 57 of which are navigable between S. Fidelis and its mouth, along with about 90 km of its upper course.

South of Cape Frio there are no large rivers along the coast because of the proximity of the Serra do Mar—the coastal plain being very narrow and in places disappearing altogether. There are many short streams along this coast, fed by heavy rainfalls, but they have no geographic importance and no economic value under existing conditions. The largest of these and the only one of commercial value is the Ribeira de Iguape, which has its source on the tablelands of Paraná and after receiving several affluents west of the Serra do Mar breaks through a depression in that range and discharges into the Atlantic some miles below Santos on the southern boundary of the state of São Paulo. This river has a navigable channel of 118 m. below Xiririca, and communicates with an inland canal or waterway extending for many miles along this coast and known as the Iguape, or Mar Pequeno. In Rio Grande do Sul the Atlantic coastal plain extends westward more than half-way across the state, and is well watered by numerous streams flowing eastward to the Lagôa dos Patos. Of these only two are of large size—the Guayba and Camaquam. The first is formed by the confluence of the Jacuhy, Cahy, Sinos and Gravatahy, and is known under this name only from Porto Alegre to the Ponta de Itapuã, where it enters the Lagôa dos Patos. This river system drains a large part of the northern mountainous region of the state, and has a considerable extension of navigable channels between the plateau margin and the lake. In the extreme southern part of the state, the Lagôa Mirim empties into the Lagôa dos Patos through a navigable channel 61½ m. long, called the Rio São Gonçalo.

South of Cape Frio, there are no large rivers along the coast because the Serra do Mar is nearby, making the coastal plain very narrow and sometimes nonexistent. There are many short streams along this coast, supplied by heavy rains, but they aren't significant geographically or economically in current conditions. The largest and the only one of commercial value is the Ribeira de Iguape, which originates in the tablelands of Paraná. After receiving several tributaries west of the Serra do Mar, it breaks through a depression in that range and flows into the Atlantic a few miles below Santos on the southern boundary of São Paulo state. This river has a navigable channel of 118 m below Xiririca and connects with an inland canal or waterway that stretches for many miles along the coast, known as the Iguape, or Mar Pequeno. In Rio Grande do Sul, the Atlantic coastal plain extends westward more than halfway across the state and is well supplied with numerous streams flowing eastward to the Lagôa dos Patos. Of these, only two are large—the Guayba and Camaquam. The Guayba is formed by the confluence of the Jacuhy, Cahy, Sinos, and Gravatahy rivers and is referred to by this name only from Porto Alegre to the Ponta de Itapuã, where it enters the Lagôa dos Patos. This river system drains a large part of the northern mountainous region of the state and has a significant network of navigable channels between the plateau edge and the lake. In the far southern part of the state, the Lagôa Mirim flows into the Lagôa dos Patos through a navigable channel 61½ m long, known as the Rio São Gonçalo.

The Brazilian rivers of the Rio de la Plata system are numerous and important. Those of the Paraguay drain the south-western part of Matto Grosso, and the tributaries of the Paraná cover the western slopes of the Serra do Mar from Rio Grande do Sul north to the south-west part of Minas Geraes, and include the south-east part of Matto Grosso and the south part of Goyaz within their drainage basin. This is one of the most important fluvial systems of Brazil, but its economic value is impaired by the great waterfalls of Guayrá, or Sete Quedas, and Uribú-punga, and by the rapids and waterfalls in the majority of its affluents near their junction with the main stream. Between the two great waterfalls of the Paraná there is an open channel of 276 m., passing through a rich and healthy country, and receiving large tributaries from one of the most fertile regions of Brazil. Among the larger of these are the great falls of the Iguassú, near the junction of that river with the Paraná. Though the Uruguay plays a less important part, its relations to the country are similar to those of the Paraná, and its tributaries from the plateau region are similarly broken by falls and rapids. The Paraguay is in great part a lowland river, with a sluggish current, and is navigable by large river steamers up to Corumbá, and by smaller steamers to Cuyabá and the mouth of the Jaurú.

The Brazilian rivers in the Rio de la Plata system are many and significant. The Paraguay River drains the southwestern area of Mato Grosso, while the tributaries of the Paraná flow down the western slopes of the Serra do Mar from Rio Grande do Sul north to the southwestern part of Minas Gerais, and include the southeastern part of Mato Grosso and the southern part of Goiás in their drainage basin. This is one of Brazil's most vital river systems, but its economic potential is limited by the major waterfalls of Guayrá, or Sete Quedas, and Uribú-punga, as well as the rapids and waterfalls in most of its tributaries near where they meet the main river. Between the two large waterfalls of the Paraná, there is a clear channel of 276 meters that flows through a rich and healthy region, collecting significant tributaries from one of Brazil's most fertile areas. Among the larger tributaries are the impressive Iguassú falls, located near where that river meets the Paraná. While the Uruguay River is less significant, its connections to the area are similar to those of the Paraná, and its tributaries from the plateau region are also interrupted by falls and rapids. The Paraguay River is mostly a lowland river with a slow current and is navigable by large river steamboats up to Corumbá, and by smaller steamboats to Cuiabá and the mouth of the Jaurú.

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Compared with the number, length and volume of its rivers, Brazil has very few lakes, only two of which are noticeable for their size. There are a number of lakes in the lowland region of the Amazon valley, but these are mainly overflow Lakes. reservoirs whose areas expand and contract with the rise and fall of the great river. The coastal plain is also intersected by lagoons, lakes and inland channels formed by uplifted beaches. These inland channels often afford many miles of sheltered navigation. The lakes formed in this manner are generally shallow, and are sometimes associated with extensive swamps, as in southern Bahia. The lakes of the Alagôas coast, however, are long, narrow and deep, occupying valleys which were deeply excavated when the land stood at a higher level, and which were transformed into lakes by the elevation of the coast. The largest of these are the Lagôa do Norte, on whose margin stands the city of Maceió, and the Lagôa do Sul, a few miles south of that city. Both have outlets to the sea, and the former is salt There is a large number of these lakes along the coasts of Espirito Santo and Rio de Janeiro, some of them of considerable size. The two largest lakes of this class are on the coast of Rio Grande do Sul and are known as the Lagôa dos Patos and Lagôa Mirim. Both of these lakes lie nearly parallel with the coast line, are separated from the ocean by broad sand beaches filled with small lakes, and communicate with the ocean through the same channel. The Lagôa dos Patos is about 124 m. long with a maximum width of 37 m., and Lagôa Mirim is 108 m. long with a maximum width of 15 m. Both are navigable, though comparatively shallow and filled with sandbanks. So far as known, there are no lakes of noteworthy size in the interior of the country. There are a few small lakes in Maranhão and Piauhy, some in Goyaz in the great valley of the Araguaya, and a considerable number in Matto Grosso, especially in the Paraguay basin, where the sluggish current of that river is unable to carry away the rainfall in the rainy season.

Compared to the number, length, and volume of its rivers, Brazil has very few lakes, with only two notable for their size. There are some lakes in the lowland Amazon valley, but these are mainly overflow reservoirs that expand and contract with the rising and falling of the great river. The coastal plain also has lagoons, lakes, and inland channels formed by elevated beaches. These inland channels often provide many miles of sheltered navigation. The lakes formed this way are generally shallow and sometimes linked to extensive swamps, as seen in southern Bahia. However, the lakes along the Alagôas coast are long, narrow, and deep, occupying valleys that were excavated when the land was at a higher level and turned into lakes due to the rising coast. The largest of these are Lagôa do Norte, where the city of Maceió is located, and Lagôa do Sul, a few miles south of that city. Both have outlets to the sea, with the former being saltwater. There are many lakes along the coasts of Espírito Santo and Rio de Janeiro, some of considerable size. The two largest lakes of this type are on the coast of Rio Grande do Sul, known as Lagôa dos Patos and Lagôa Mirim. Both of these lakes run nearly parallel to the coastline, separated from the ocean by broad sandy beaches filled with small lakes, and connect to the ocean through the same channel. Lagôa dos Patos is about 124 meters long with a maximum width of 37 meters, while Lagôa Mirim is 108 meters long with a maximum width of 15 meters. Both are navigable but relatively shallow and filled with sandbanks. As far as is known, there are no lakes of significant size in the interior of the country. There are a few small lakes in Maranhão and Piauí, some in Goiás in the great valley of the Araguaya, and quite a few in Mato Grosso, especially in the Paraguay basin, where the slow current of that river can't carry away the rainfall during the rainy season.

The coast of Brazil is indented with a number of almost landlocked bays, forming spacious and accessible harbours. The larger and more important of these are Todos os Santos, on which is located the city of São Salvador or Bahia, and Coast. Rio de Janeiro or Guanabara, beside which stands the capital of the republic. These two are freely accessible to the largest ships afloat. The bays of Espirito Santo, Paranaguá and São Francisco have similar characteristics, but they are smaller and more difficult of access. The first is the harbour for the city of Victoria, and the other two for ports of the same name in southern Brazil. The port of Pernambuco, or Recife, is formed by a stone reef lying across the entrance to a shallow bay at the mouth of two small rivers, Beberibe and Capibaribe, and is accessible to steamers of medium draught. Santa Catharina and Maranhão have well-sheltered harbours formed by an island lying in the mouth of a large bay, but the latter is shallow and difficult of access. Pará, Parnahyba, Parahyba, Santos and Rio Grande do Sul are river ports situated near the sea on rivers having the same name; but, with the exception of Pará and Santos, they are difficult of access and are of secondary importance. There are still other bays along the coast which are well adapted for commercial purposes but are used only in the coasting trade. Many of the Atlantic coast rivers would afford excellent port facilities if obstructions were removed from their mouths.

The coast of Brazil has many nearly landlocked bays that create spacious and easily accessible harbors. The largest and most significant ones are Todos os Santos, where the city of São Salvador, also known as Bahia, is located, and Rio de Janeiro, or Guanabara, next to the capital of the republic. Both of these bays can accommodate the biggest ships. The bays of Espirito Santo, Paranaguá, and São Francisco share similar features, but they are smaller and more challenging to access. The first serves as the harbor for the city of Vitória, while the other two are ports with the same names in southern Brazil. The port of Pernambuco, or Recife, includes a stone reef that blocks the entrance to a shallow bay formed by two small rivers, Beberibe and Capibaribe, and it is accessible for medium-draft steamers. Santa Catarina and Maranhão have well-sheltered harbors created by an island at the mouth of a large bay, though the latter is shallow and difficult to access. Pará, Parnahyba, Parahyba, Santos, and Rio Grande do Sul are river ports located near the sea on rivers of the same name, but except for Pará and Santos, they are hard to access and are of lesser importance. There are also other bays along the coast suitable for commercial use, but they are only utilized in the coasting trade. Many of the rivers along the Atlantic coast could provide excellent port facilities if the obstructions at their mouths were cleared.

Geology.—Brazil is a region which has been free from violent disturbances since an early geological period. It has, indeed, been subject to oscillations, but the movements have been regional in character and have not been accompanied by the formation of any mountain chain or any belt of intense folding. From the Devonian onwards the beds lie flat or dip at low angles. They are faulted but not sharply folded. The mountain ranges of the east of Brazil, from Cape St Roque to the mouth of the river Plate, are composed chiefly of crystalline and metamorphic rocks. Some of the metamorphic rocks may belong to the older Palaeozoic period, but the greater part of the series is probably Archaean. Similar rocks cover a large area in the province of Goyaz and in the south of the Matto Grosso, and they form, also, the hills which border the basin of the Amazon on the confines of Venezuela and Guiana. They constitute, in fact, an incomplete rim around the basin of sedimentary beds which occupies the Amazonian depression. In a large part of this basin the covering of sedimentary deposits is comparatively thin. The crystalline floor is exposed in the valleys of the Madeira, Xingú, &c. Some of the rocks thus exposed are, however, eruptive (e.g. in the Tapajoz), and probably do not belong to the Archaean. The crystalline rocks are succeeded by beds which have been referred to the Cambrian and Silurian systems. In the valley of the Trombetas, one of the northern tributaries of the Amazon, fossils have been found which indicate either the top of the Ordovician or the bottom of the Silurian. In the Maecuru, another northern affluent, graptolites of Ordovician age have been discovered, and Silurian fossils are said to have been found in the Maraca. Elsewhere the identification of the Silurian and older systems does not rest on palaeontological evidence. Devonian beds cover a much more extensive area. They crop out in a band some 25 to 50 m. north of the lower Amazon and in another band at a still greater distance south of that river. These bands are often concealed by more recent deposits, but it is clear that in this region the Devonian beds form a basin or synclinal with the Amazon for its axis. Devonian beds also lie upon the older rocks in the Matto Grosso and other provinces in the interior of Brazil, where they generally form plateaux of nearly horizontal strata. Fossils have been found in many localities. They belong to either the lower or the middle division of the Devonian system. The fauna shows striking analogies with that of the Bokkeveld beds of South Africa on the one hand and of the Hamilton group of North America on the other. The Carboniferous system in Brazil presents itself under two facies, the one marine and the other terrestrial. In the basin of the Lower Amazon the Carboniferous beds lie within the Devonian synclinal and crop out on both sides of the river next to the Devonian bands. There is a lower series consisting of sandstone and an upper series of limestone. The former appears to be almost unfossiliferous, the latter has yielded a rich marine fauna, which belongs to the top of the Carboniferous or to the Permo-carboniferous. In southern Brazil, on the other hand, in Rio Grande do Sul, Paraná, &c., the beds of this period are of terrestrial origin, containing coal seams and remains of plants. Some of the plants are European forms, others belong to the Glossopteris flora characteristic of India and South Africa. The beds are homotaxial with the Karharbári series of India, and represent either the top of the Carboniferous or the base of the Permian of Europe. The only Mesozoic system which is represented in Brazil by marine beds is the Cretaceous, and the marine facies, is restricted to the coasts and the basin of the Amazon. In the province of Sergipe, on the east coast, the beds are approximately on the horizon of the Cenomanian; in the valley of the Amazon they belong to the highest parts of the Cretaceous system, and the fauna shows Tertiary affinities. In the interior of Brazil, the Palaeozoic beds are directly overlaid by a series of red sandstones, &c., which appear to be of continental origin and of which the age is uncertain. Tertiary beds cover a considerable area, especially in the Amazonian depression. They consist chiefly of sands and clays of aeolian and freshwater origin. Of the Pleistocene and recent deposits the most interesting are the remains of extinct animals (Glyptodon, Mylodon, Megatherium, &c.) in the caves of the São Francisco.

Geology.—Brazil is an area that has been free from major disturbances since a long time ago in its geological history. While there have been some shifts, these have been regional and haven’t led to the creation of mountain ranges or significant folding. From the Devonian period onward, the rock layers are mostly flat or gently sloped. Although they are faulted, they aren’t sharply folded. The mountain ranges in eastern Brazil, stretching from Cape St. Roque to the mouth of the River Plate, are mainly made up of crystalline and metamorphic rocks. Some of these metamorphic rocks could be from the older Paleozoic era, but most of the series is likely Archaean. Similar rocks cover a large section of the Goyaz province and southern Matto Grosso, and they also form the hills along the Amazon basin near Venezuela and Guiana. Essentially, they create an incomplete boundary around the sedimentary area that fills the Amazonian depression. In many parts of this basin, the layer of sediment is relatively thin. The crystalline base is exposed in the valleys of the Madeira, Xingú, etc. Some exposed rocks, however, are volcanic (for example, in the Tapajoz) and likely don’t date back to the Archaean period. These crystalline rocks are followed by layers associated with the Cambrian and Silurian systems. In the Trombetas Valley, a northern tributary of the Amazon, fossils have been found suggesting they are from the top of the Ordovician or the bottom of the Silurian. In the Maecuru, another northern tributary, Ordovician graptolites have been discovered, and Silurian fossils have reportedly been found in the Maraca. In other areas, the identification of the Silurian and older systems isn't based on fossil evidence. Devonian layers cover a much wider area. They are visible in a strip roughly 25 to 50 miles north of the lower Amazon and another strip even further south of the river. These bands are often hidden by more recent deposits, but it’s evident that in this region the Devonian layers make up a basin or syncline with the Amazon serving as its axis. Devonian layers also rest on the older rocks in the Matto Grosso and other interior provinces of Brazil, where they typically form plateaus of nearly flat strata. Fossils have been found in various locations, belonging to either the lower or middle parts of the Devonian system. The fauna shows remarkable similarities to that of the Bokkeveld beds in South Africa on one side and the Hamilton group in North America on the other. The Carboniferous system in Brazil presents itself in two forms: one marine and the other terrestrial. In the Lower Amazon basin, the Carboniferous layers lie within the Devonian syncline and emerge on both sides of the river alongside the Devonian bands. There is a lower series made of sandstone and an upper series of limestone. The sandstone appears to be nearly devoid of fossils, while the limestone has produced a rich marine fauna that belongs to the top of the Carboniferous or the Permo-Carboniferous. In southern Brazil, however, in Rio Grande do Sul, Paraná, etc., the layers from this period are of terrestrial origin, containing coal seams and plant remains. Some of the plants are European types, while others are part of the Glossopteris flora which is typical of India and South Africa. The layers are homotaxial with the Karharbári series of India and represent either the top of the Carboniferous or the base of the Permian in Europe. The only Mesozoic system represented in Brazil by marine layers is the Cretaceous, and this marine aspect is limited to the coasts and the Amazon basin. In Sergipe province on the east coast, the layers are roughly at the Cenomanian level; in the Amazon valley, they belong to the highest parts of the Cretaceous system, and their fauna shows Tertiary characteristics. In the interior of Brazil, the Paleozoic layers are directly topped by a series of red sandstones, etc., which seem to have a continental origin and whose age is uncertain. Tertiary layers cover a significant area, especially in the Amazonian depression. They mainly consist of sands and clays of aeolian and freshwater origin. Among the most interesting Pleistocene and recent deposits are the remains of extinct animals (like Glyptodon, Mylodon, Megatherium, etc.) found in the caves of São Francisco.

From the above account it will appear that, excepting near the coast and in the basin of the Amazon, there is no evidence that any part of Brazil has been under the sea since the close of the Devonian period. During the Triassic and Jurassic periods even the basin of the Amazon appears to have been dry land. Eruptive rocks occur in the Devonian and Carboniferous beds, but there is no evidence of volcanic activity since the Palaeozoic epoch. The remarkable “stone reefs” of the north-east coast are ancient beaches hardened by the infiltration of carbonate of lime. They are quite distinct in their formation from the coral reefs of the same coast.

From the description above, it seems that, aside from areas near the coast and in the Amazon basin, there's no indication that any part of Brazil has been underwater since the end of the Devonian period. During the Triassic and Jurassic periods, even the Amazon basin seems to have been dry land. Eruptive rocks can be found in the Devonian and Carboniferous layers, but there’s no proof of volcanic activity since the Paleozoic era. The notable “stone reefs” along the northeast coast are ancient beaches that have solidified due to the infiltration of calcium carbonate. They are quite different in their formation from the coral reefs along the same coastline.

Climate.—Brazil lies almost wholly within the torrid zone, less than one-twelfth of its area lying south of the tropic of Capricorn. In general terms, it is a tropical country, with sub-tropical and temperate areas covering its three southern states and a great part of the elevated central plateau. The forest-covered, lowland valley of the Amazon is a region of high temperatures which vary little throughout the year, and of heavy rainfall. There is no appreciable change of seasons, except that produced by increased rainfall in the rainy season. The average temperature according to Castelnau is about 78°F., or 82.40° to 84.20° F. according to Agassiz. There is an increase in the rainfall from August to October, and again from November to March, the latter being the regular rainy season, but the time varies considerably between the valley of the upper Amazon and those of the upper Madeira and Negro. There is usually a short dry season on the upper Amazon in January and February, which causes two annual floods—that of November-December, and the great flood of March-June. The subsidence of the latter usually lasts until October. The average rainfall throughout the whole Amazon valley is estimated by Reclus as “probably in excess of 2 metres” (78.7 in.), and the maximum rise of the great flood is about 45 ft. The prevailing winds in the Amazon valley are easterly and westerly (or south-westerly), the former warm and charged with moisture, the latter dry and cold. The easterly winds, which are deflections of the trade winds, blow upstream with great regularity and force, more especially in the winter or dry season, and are felt as far inland as the mouths of the Madeira and Negro. Above these they are less regular and are attracted northward by the heated llanos of Venezuela in winter, or southward by the heated campos of Matto Grosso in summer. The cold south-westerly winds are felt when the sun is north of the equator, and are most severe, for a few days, in the month of May, when a tempo da friagem (cold period) causes much discomfort throughout the upper Amazon region. There are winter winds from the Andes, but in the summer season there are cold currents of air from up-river (ventos da cima) which are usually followed by downpours of rain.

Climate.—Brazil is mostly located in the tropical zone, with less than one-twelfth of its area lying south of the Tropic of Capricorn. Generally, it’s a tropical country, but its three southern states and a large portion of the elevated central plateau have sub-tropical and temperate areas. The forest-covered, lowland valley of the Amazon experiences high temperatures that don't vary much throughout the year and receives heavy rainfall. There aren’t significant seasonal changes, except for increased rainfall during the rainy season. The average temperature, according to Castelnau, is about 78°F, or around 82.4°F to 84.2°F according to Agassiz. Rainfall typically increases from August to October and again from November to March, the latter being the main rainy season, though the timing varies quite a bit between the upper Amazon valley and the upper Madeira and Negro rivers. Usually, there’s a short dry season in January and February in the upper Amazon, which leads to two annual floods: one in November-December and another larger flood from March to June. The effects of the latter usually persist until October. The average rainfall throughout the entire Amazon valley is estimated by Reclus to be “probably in excess of 2 meters” (78.7 in.), and the maximum rise of the major flood is about 45 ft. The prevailing winds in the Amazon valley blow easterly and westerly (or south-westerly), with the easterly winds being warm and moist, while the westerly ones are dry and cool. The easterly winds, which are variations of the trade winds, flow upstream consistently and forcefully, especially in the winter or dry season, and can be felt as far inland as the mouths of the Madeira and Negro rivers. Beyond those points, they become less consistent and are drawn northward by the hot llanos of Venezuela in winter or southward by the heated campos of Matto Grosso in summer. The cold south-westerly winds occur when the sun is north of the equator and are particularly harsh for a few days in May when a tempo da friagem (cold period) brings discomfort throughout the upper Amazon region. There are winter winds from the Andes, but during the summer season, cold air currents from upstream (ventos da cima) are usually followed by heavy rain.

The coastal plain as far south as Santos is a region of high temperatures and great humidity. The year is usually divided into a winter (inverno) and summer (verão), corresponding approximately to a dry and wet season. The “dry” season, however, is a season of moderate rainfall, except on the north-east coast where arid conditions prevail. Another exception is that of the Pernambuco coast, where the rainy season comes between March and August, with the heaviest rainfall from May to July, which is the time of the southern winter. Going southward there is also a gradual decrease in the mean annual temperature, the difference between Rio de Janeiro and the Amazon being about 5°. The north-east coast, which is sandy and barren, shows an average mean annual temperature (at 443 Fortaleza) of nearly 80° F., which is slightly higher than those of Maranhão and Pará. At Pernambuco the mean summer temperature is 79.5° and that of winter 76.8°, which are about 3° lower than the mean temperature of Bahia in summer, and 5° higher than the Bahia mean in winter. South of Bahia there is a gradual increase in the rainfall, that of Rio de Janeiro exceeding 43 in. per annum. At Santos the rainfall is exceptionally heavy and the mean temperature high, but below that point the climatic conditions are considerably modified, the range in temperature being greater, the mean annual temperature lower, and the rainfall more evenly distributed throughout the year. The winds are more variable, and the seasons are more sharply defined. In Rio Grande do Sul the range in temperature is from 26° to 80°, the climate being similar to that of Uruguay. At Pelotas, a sea-level port on Lagôa dos Patos, the mean annual temperature is about 63° and the annual rainfall about 42 in. Extreme variations in temperature are often produced by cold south-west storms from the Argentine pampas, which sweep across southern Brazil as far north as Cape Frio, the fall in temperature sometimes being 22° to 27°. These storms usually last from two to three days and cause much discomfort. Winter rains are more frequent in southern Brazil, and violent storms prevail in August and September. At Blumenau, on the Santa Catharina coast, the annual rainfall is 53 in.

The coastal plain stretching down to Santos is characterized by high temperatures and significant humidity. The year is typically split into winter (inverno) and summer (verão), roughly aligning with the dry and wet seasons. However, the "dry" season still experiences moderate rainfall, except along the north-east coast where dry conditions dominate. An exception is the Pernambuco coast, where the rainy season occurs from March to August, with the heaviest rain falling from May to July, coinciding with the southern winter. As you move south, the average annual temperature gradually decreases, with a difference of about 5° between Rio de Janeiro and the Amazon. The north-east coast, which is sandy and barren, has an average annual temperature (at 443 Fortaleza) of nearly 80° F., slightly higher than those of Maranhão and Pará. In Pernambuco, the average summer temperature is 79.5° and the winter temperature is 76.8°, which are about 3° lower than summertime in Bahia, and 5° higher than Bahia's winter average. South of Bahia, rainfall begins to increase, with Rio de Janeiro receiving over 43 inches per year. Santos experiences particularly heavy rainfall and high average temperatures, but south of that point, the climate changes significantly, with a greater temperature range, lower average temperature, and more evenly distributed rainfall throughout the year. Wind patterns are more variable, and the seasons are more distinctly defined. In Rio Grande do Sul, temperatures range from 26° to 80°, resembling the climate of Uruguay. At Pelotas, a sea-level port on Lagôa dos Patos, the mean annual temperature is about 63° and the yearly rainfall is approximately 42 inches. Significant temperature fluctuations are often caused by cold south-west storms from the Argentine pampas, which can reach as far north as Cape Frio, resulting in temperature drops of 22° to 27°. These storms typically last two to three days and can cause considerable discomfort. Winter rains are more common in southern Brazil, with strong storms prevalent in August and September. At Blumenau, on the Santa Catharina coast, the annual rainfall amounts to 53 inches.

The climatic conditions of the Brazilian plateau are widely different from those of the coast in many respects. There is less uniformity in temperature, and the elevated chapadas are generally hotter during the day and cooler at night than are localities of the same latitude on the coast. The Brazilian Guiana plateau, lying immediately north of the equator, is in great part a hot, stony desert. Geographically it belongs to the Amazon basin, as its western and southern slopes are drained by tributaries of that great river. Climatically, however, it is a region apart. It lies in the north-east trade winds belt, but the mountain chain on its northern frontier robs these winds of their moisture and leaves the greater part of the Brazilian plateau rainless. Its eastern and western extremities, however, receive more rain, the former being well forested, while the latter is covered with grassy campos. South of the Amazon valley and filling a great part of the eastern projection of the continent, is another arid, semi-barren plateau, lying within the south-east trade winds belt, and extending from Piauhy southward to southern Bahia. It covers the state of Piauhy and the western or inland parts of the states of Ceará, Rio Grande do Norte, Parahyba, Pernambuco and Bahia. The year is divided into a dry and wet season, the first from June to December, when rain rarely falls, the streams dry up and the campos are burned bare, and the second from January to May when the rains are sometimes heavy and the campos are covered with luxuriant verdure. The rains are neither regular nor certain, however, and sometimes fail for a succession of years, causing destructive sêccas (droughts). The interior districts of Ceará, Pernambuco and Bahia have suffered severely from these sêccas. The sun temperature is high on these barren tablelands, but the nights are cool and refreshing. The prevailing winds are the south-east trades, which have lost some of their moisture in rising from the coastal plain. In summer, becoming warmed by the heated surface of the plateau, they sweep across it without a cloud or drop of rain. In winter the plateau is less heated, and cold currents of air from the west and south-west cause precipitation over a part if not all of this region. South and south-west of this arid plateau lie the inhabited tablelands of Rio de Janeiro, São Paulo and Minas Geraes, where the climate is greatly modified by a luxuriant vegetation and southerly winds, as well as by the elevation. Minas Geraes is forested along its water courses and along its southern border only; its sun temperature, therefore, is high and the rainfall in its northern districts is comparatively light. São Paulo is partly covered by open campos, and these also serve to augment the maximum temperature. In both of these states, however, the nights are cool, and the mean annual temperature ranges from 68° to 77°, the northern districts of Minas Geraes being much warmer than the southern. In São Paulo and southern Minas Geraes there are sometimes frosts. In the Parahyba valley, which extends across the state of Rio de Janeiro, the mean temperature is somewhat higher than it is in São Paulo and Minas Geraes, and the nights are warmer, but the higher valleys of the Serra do Mar enjoy a delightfully temperate climate. The rainfall throughout this region is abundant, except in northern Minas Geraes, where the climatic conditions are influenced to some extent by the arid eastern plateau. South of São Paulo the tablelands of Paraná, Santa Catharina and Rio Grande do Sul enjoy a temperate climate, with an abundant rainfall. There are occasional frosts, but snow is never seen. Of Goyaz and Matto Grosso very little can be said. The lower river valleys of the Tocantins-Araguaya, Xingú, Tapajós and Paraguay are essentially tropical, their climate being hot and humid like that of the Amazon. The higher valleys of the Paraná and its tributaries, and of the rivers which flow northward, are sub-tropical in character, having high sun temperatures and cool nights. Above these, the chapadas lie open to the sun and wind and have a cool, bracing atmosphere even where high sun temperatures prevail. The mean annual temperature at Goyaz (city), according to a limited number of observations, is about 77°. There is no absolutely dry season in this part of the great Brazilian plateau, though the year is customarily divided into a dry and wet season, the latter running from September to April in Goyaz, and from November to April in Matto Grosso. The prevailing winds are from the north-west in this region, and westerly winds in the rainy season are usually accompanied by rain.

The climate of the Brazilian plateau is quite different from that of the coast in several ways. The temperature is less consistent, and the elevated chapadas tend to be hotter during the day and cooler at night compared to coastal areas at the same latitude. The Brazilian Guiana plateau, located just north of the equator, is largely a hot, rocky desert. Geographically, it falls within the Amazon basin, as its western and southern slopes are drained by tributaries of the Amazon River. However, climatically, it is distinct. It sits in the northeast trade winds belt, but the mountain range to its north strips these winds of moisture, leaving much of the Brazilian plateau dry. Its eastern and western edges receive more rainfall; the east is well-forested, while the west is covered with grassy campos. To the south of the Amazon valley, filling a large part of the eastern extension of the continent, lies another dry, semi-barren plateau, within the southeast trade winds belt, stretching from Piauhy down to southern Bahia. This region includes the state of Piauhy and the western or inland areas of Ceará, Rio Grande do Norte, Parahyba, Pernambuco, and Bahia. The year is divided into a dry season from June to December, when rain is scarce, rivers dry up, and the campos are burnt bare, and a wet season from January to May, when rainfall can be heavy and the campos become lush. However, the rains are unpredictable and may sometimes be absent for several years, leading to severe sêccas (droughts). The interior areas of Ceará, Pernambuco, and Bahia have suffered greatly due to these sêccas. The temperature is high during the day on these barren plateaus, but nights are cool and refreshing. The prevailing winds are the southeast trades, which lose some moisture as they rise from the coastal plains. In summer, these winds, warmed by the plateau's surface, usually pass over it without bringing clouds or rain. In winter, the plateau is cooler, and cold air currents from the west and southwest cause rain in parts, if not all, of the area. To the south and southwest of this dry plateau are the inhabited plateaus of Rio de Janeiro, São Paulo, and Minas Gerais, where the climate is significantly impacted by lush vegetation and southerly winds, as well as elevation. Minas Gerais has forests only along its waterways and southern border; thus, its daily temperatures are high and rainfall in the northern regions is relatively low. São Paulo is partly covered by open campos, which contribute to the maximum temperatures. However, both states have cool nights, and the average annual temperature ranges from 68° to 77°, with the northern parts of Minas Gerais being much warmer than the south. Occasional frosts occur in São Paulo and southern Minas Gerais. In the Parahyba valley, which runs through Rio de Janeiro state, the average temperature is slightly higher than in São Paulo and Minas Gerais, and the nights are warmer, yet the higher valleys of the Serra do Mar enjoy a pleasantly temperate climate. Rainfall in this region is plentiful, except in northern Minas Gerais, where arid conditions of the eastern plateau have some impact. To the south of São Paulo, the plateaus of Paraná, Santa Catarina, and Rio Grande do Sul experience a temperate climate with plenty of rain. Frosts can happen, but snow is nonexistent. Not much can be said about Goyaz and Mato Grosso. The lower river valleys of the Tocantins-Araguaya, Xingú, Tapajós, and Paraguay are distinctly tropical, experiencing a hot and humid climate similar to that of the Amazon. The higher valleys of the Paraná and its tributaries, along with rivers flowing northward, have a subtropical feel, featuring high daytime temperatures and cool nights. Higher up, the chapadas are exposed to sun and wind, maintaining a cool and invigorating atmosphere even during high temperatures. The average annual temperature in Goyaz (the city), based on limited observations, is about 77°. There isn’t a completely dry season in this part of the Brazilian plateau, although the year is generally split into a dry and wet season, with the wet season running from September to April in Goyaz, and from November to April in Mato Grosso. The prevailing winds in this area come from the northwest, and westerly winds during the rainy season typically bring rain.

Fauna.—The indigenous fauna of Brazil is noteworthy not only for the variety and number of its genera and species, but also for its deficiency in the larger mammals. Of this, one of the best authorities on the subject (H.W. Bates in The Naturalist on the River Amazons) says: “Brazil, moreover, is throughout poor in terrestrial mammals, and the species are of small size.” It is noteworthy, also, for the large number of species having arboreal habits, the density and extent of the Amazon forests favouring their development rather than the development of those of terrestrial habits. Of Quadrumana there are about fifty species in Brazil, all arboreal, thirty-eight of which inhabit the Amazon region. They belong mostly to the Cebidae family, and are provided with prehensile tails. The Carnivora are represented by six species of the Felidae, the best known of which is the onça, or jaguar (F. onça, L.), and the cougar, or puma (F. concolor); three species of the Canidae, the South American wolf (C. jubatus), and two small jackals (C. brasiliensis and C. vetulus); and a few species of the Mustelina including two of the otter, two Galictis and one Mephitis. Of the plantigrades, Brazil has no bears, but has the related species of raccoon (Nasua socialis and N. solitaria), popularly called coatis. The opossum (Didelphis) is represented by three or four species, two of which are so small that they are generally called wood rats. The rodents are numerous and include several peculiar species. Only one species of hare is found in Brazil, the Lepus brasiliensis, and but one also of the squirrel (Scyurus). Of the amphibious rodents, the prêá (Cavia aperea), mocó (C. rupestris), paca (Coelogenys paca), cutia (Dasyprocta aguti) and capybara (Hydrochoerus capybara) are noteworthy for their size and extensive range. Their flesh is used as an article of food, that of the paca being highly esteemed. Of the Muridae there are several genera and a large number of species, some of them evidently importations from the Old World. Brazil has three groups of animals similar to the common rat—the Capromydae, Loncheridae and Psammoryctidae—the best known of which is the “tuco-tuco” (Clenomys brasiliensis), a small burrowing animal of Rio Grande do Sul which excavates long subterranean galleries and lives on roots and bulbs. One of the characteristic orders of the Brazilian fauna is that of the Edentata, which comprises the sloth, armadillo and ant-eater. These animals are found only in the tropical regions of South America. The range of the sloth is from the Guianas south into Minas Geraes, the armadillo as far south as the Argentine pampas and the ant-eater from the Amazon south to Paraguay, though it is found in the Amazon region principally. The sloth (Bradypus) is an arboreal animal which feeds almost exclusively on the foliage of the Cecropias. It includes two recognized genera and half a dozen species, the best known of which is B. didactylus. The common name in Brazil is preguiça, which is equivalent to its English name. Of armadillos, commonly called tatú in Brazil, the largest species is the Dasypus gigas, but the best known is the tatú-été (D. octocinctus), which is highly esteemed for its flesh. The ant-eaters (Myrmecophaga) are divided into three or four species, one of which (M. jubata) is exclusively terrestrial, and the others arboreal. The popular name for the animal is tamanduá. The M. jubata, or tamanduá bandeira, is sometimes found as far south as Paraguay. Of the ruminants, Brazil has only four or five species of Cervidae, which are likewise common to other countries of South America. The largest of these is the marsh deer (C. paludosus), which in size resembles its European congeners. The others are the C. campestris, C. nemorivagus, C. rufus and a small species or variety called C. nanus by the Danish naturalist Dr P.W. Lund. The pachyderms are represented by three species of the peccary (Dicotyles) and two of the anta, or tapir (Tapirus). The former are found over a wide range of country, extending into Bolivia and Argentina, and are noted for their impetuous pugnacity. The tapir also has an extensive range between the coast and the foothills of the Andes, and from northern Argentina to south-eastern Colombia. It is the largest of the Brazilian mammals, and inhabits densely forested tracts near river courses. The two species are T. americanus, which is the larger and best known, and the anta chure, found in Minas Geraes, which is said to be identical with the T. Roulini of Colombia. Perhaps the most interesting mammal of Brazil is the manati, or sea-cow (Manatus americanus), which inhabits the lower Amazon and sometimes reaches a length of 15 to 20 ft. It is taken with the harpoon and its oil is one of the commercial products of the Amazon valley.

Fauna.—The native wildlife of Brazil is notable not just for the variety and number of its genera and species, but also for the lack of larger mammals. One of the foremost experts on the topic, H.W. Bates in The Naturalist on the River Amazons, states: “Brazil, furthermore, is generally lacking in terrestrial mammals, and the species are small in size.” It's also remarkable for the numerous species with tree-dwelling habits, as the dense and expansive Amazon forests promote their growth over that of ground-dwelling species. Brazil is home to around fifty species of primates, all of which are tree-dwellers, with thirty-eight residing in the Amazon region. Most belong to the Cebidae family and have prehensile tails. The carnivorous mammals consist of six species of the Felidae, with the most well-known being the jaguar (F. onça, L.) and the cougar, or puma (F. concolor); three species of the Canidae, including the South American wolf (C. jubatus) and two smaller jackals (C. brasiliensis and C. vetulus); and a few members of the Mustelina, which include two types of otters, two Galictis species, and one Mephitis. In terms of plantigrades, Brazil has no bears, but it does have related species of raccoon (Nasua socialis and N. solitaria), commonly referred to as coatis. The opossum (Didelphis) is represented by three or four species, two of which are so small that they're usually called wood rats. The rodent population is large and features several unique species. Only one species of hare exists in Brazil, the Lepus brasiliensis, and just one type of squirrel (Scyurus). Among amphibious rodents, the prêá (Cavia aperea), mocó (C. rupestris), paca (Coelogenys paca), cutia (Dasyprocta aguti), and capybara (Hydrochoerus capybara) are noted for their size and widespread range. Their meat is used as food, with paca meat being particularly valued. The Muridae family includes several genera and a significant number of species, some of which are clearly imports from the Old World. Brazil is home to three groups of animals resembling common rats—the Capromydae, Loncheridae, and Psammoryctidae—the most well-known being the “tuco-tuco” (Clenomys brasiliensis), a small burrowing animal from Rio Grande do Sul that digs long underground tunnels and feeds on roots and bulbs. A distinctive order within Brazil's fauna is the Edentata, which includes the sloth, armadillo, and anteater. These animals are exclusive to the tropical regions of South America. The sloth's range extends from the Guianas south into Minas Gerais, while the armadillo goes as far south as the Argentine pampas, and the anteater ranges from the Amazon region south to Paraguay, though it is mainly found in the Amazon. The sloth (Bradypus) is a tree-dweller that mainly feeds on the leaves of Cecropias. It consists of two recognized genera and about six species, the most well-known being B. didactylus. In Brazil, it is commonly called preguiça, which matches its English name. Armadillos, known as tatú in Brazil, have the largest species, the Dasypus gigas, but the most familiar is the tatú-été (D. octocinctus), prized for its meat. The anteaters (Myrmecophaga) are divided into three or four species, one of which (M. jubata) is entirely terrestrial, while the others are arboreal. The popular name for this animal is tamanduá. The M. jubata, or tamanduá bandeira, can sometimes be found as far south as Paraguay. Among ruminants, Brazil has only four or five species of Cervidae, which are also found in other South American countries. The largest of these is the marsh deer (C. paludosus), which is similar in size to its European counterparts. The others include C. campestris, C. nemorivagus, C. rufus, and a smaller species or variety named C. nanus by Danish naturalist Dr. P.W. Lund. The pachyderms are represented by three species of peccary (Dicotyles) and two of the tapir (Tapirus). The peccaries are found over a wide area, extending into Bolivia and Argentina, and are known for their aggressive nature. The tapir has a broad range that spans from the coast to the foothills of the Andes, and from northern Argentina to southeastern Colombia. It is the largest mammal in Brazil and lives in dense forests near rivers. The two species are T. americanus, which is larger and more well-known, and the anta chure, found in Minas Gerais, thought to be identical to the T. Roulini of Colombia. Perhaps the most intriguing mammal in Brazil is the manati, or sea cow (Manatus americanus), which inhabits the lower Amazon and can sometimes reach lengths of 15 to 20 ft. It is captured with a harpoon, and its oil is one of the commercial products from the Amazon valley.

The avifauna of Brazil is rich in genera, species and individuals, especially in species with brilliantly-coloured plumage. It is estimated that more than half the birds of Brazil are insectivorous, and that more than one-eighth are climbers. The range in size is a wide one—from the tiny humming-bird to the ema, rhea, or American ostrich. Although the order which includes song-birds is numerous in species and individuals, it is noticeably poor in really good songsters. On the other hand it is exceptionally rich in species having strident voices and peculiar unmusical calls, like the pacô (Coracina scuttata) and the araponga (Chasmorhynchus nudicollis). Two species of vultures, twenty-three of falcons and eight of owls represent the birds of prey. The best known vulture is the common urubú (Cathartes foetens, Illig), which is the universal scavenger of the 444 tropics. The climbers comprise a large number of species, some of which, like those of the parrot (Psittacidae) and woodpecker (Picus), are particularly noticeable in every wooded region of the country. One of the most striking species of the former is the brilliantly-coloured arara (Macrocercus, L.), which is common throughout northern Brazil. Another interesting species is the toucan (Ramphastos), whose enormous beak, awkward flight and raucous voice make it a conspicuous object in the great forests of northern Brazil. In strong contrast to the ungainly toucan is the tiny humming-bird, whose beautiful plumage, swiftness of flight and power of wing are sources of constant wonder and admiration. Of this smallest of birds there are fifty-nine well-known species, divided into two groups, the Phaethorninae, which prefer the forest shade and live on insects, and the Trochilinae, which frequent open sunny places where flowers are to be found. One of the Brazilian birds whose habits have attracted much interest is the João de Barro (Clay John) or oven bird (Furnarius rufus), which builds a house of reddish clay for its nest and attaches it to the branch of a tree, usually in a fork. The thrush is represented by a number of species, one of which, the sabiá (Mimus), has become the popular song-bird of Brazil through a poem written by Gonçalves Dias. The dove and pigeon have also a number of native species, one of which, the pomba jurity (Peristera frontalis), is a highly-appreciated table luxury. The gallinaceous birds are well represented, especially in game birds. The most numerous of these are the perdiz (partridge), the best known of which is the Tinamus maculosa which frequents the campos of the south, the inhambú (Crypturus), capoeira (Odontophorus), and several species of the penelope family popularly known as the jacutinga, jacú and jacú-assú. The common domesticated fowl is not indigenous. Among the wading and running birds, of which the ema is the largest representative, there are many species of both descriptions. In the Amazon lowlands are white herons (Ardea candidissima), egrets (A. egretta), bitterns (A. exilis), blue herons (A. herodias) scarlet ibises (Ibis rubra), roseate spoonbills (Platalea ajaja); on higher ground the beautiful peacock heron (A. helias) which is easily domesticated; and on the dry elevated campos the ceriema (Dicholophus cristatus) which is prized for its flesh, and the jacamin (Psophia crepitans) which is frequently domesticated. Prominent among the storks is the great black-headed white crane, called the jaburú (Mycteria americana), which is found along the Amazon and down the coast and grows to a height of 4½ ft. Of the swimmers, the number of species is smaller, but some of them are widely distributed and numerous in individuals. There are but few species of ducks, and they are apparently more numerous in southern Brazil than on the Amazon.

The birdlife of Brazil is diverse in families, species, and individual birds, particularly those with vibrant plumage. It's estimated that over half of Brazil's birds are insect-eaters, and more than one-eighth are tree-climbers. The size range is extensive, from tiny hummingbirds to the ema, rhea, or American ostrich. While the group that includes songbirds has many species and individuals, it lacks a significant number of truly great singers. Conversely, it is exceptionally rich in species with loud voices and unique, non-musical calls, such as the pacô (Coracina scuttata) and araponga (Chasmorhynchus nudicollis). The birds of prey include two species of vultures, twenty-three species of falcons, and eight species of owls. The best-known vulture is the common urubú (Cathartes foetens, Illig), the universal scavenger of the tropics. The climbing birds include many species, some like parrots (Psittacidae) and woodpeckers (Picus), that are particularly noticeable in wooded areas across the country. One of the most striking parrots is the brilliantly-colored arara (Macrocercus, L.), commonly found in northern Brazil. Another fascinating bird is the toucan (Ramphastos), which, with its massive beak, clumsy flight, and raucous call, stands out in the vast forests of northern Brazil. In sharp contrast to the awkward toucan is the tiny hummingbird, which captivates with its beautiful plumage, swift flight, and powerful wings. There are fifty-nine well-known species of this smallest bird, categorized into two groups: Phaethorninae, which prefer shaded forests and feed on insects, and Trochilinae, which are found in sunny areas where flowers grow. One Brazilian bird that has garnered a lot of interest is the João de Barro (Clay John) or oven bird (Furnarius rufus), which builds a nest out of reddish clay and attaches it to a tree branch, usually in a fork. The thrush is represented by several species, one being the sabiá (Mimus), which has become Brazil's beloved songbird thanks to a poem by Gonçalves Dias. Doves and pigeons also have numerous native species, including the pomba jurity (Peristera frontalis), which is highly regarded as a culinary delicacy. Game birds are well-represented among gallinaceous birds, with the most common being the perdiz (partridge), the best known of which is the Tinamus maculosa that inhabits the campos of the south, the inhambú (Crypturus), capoeira (Odontophorus), and various species of penelopes colloquially known as jacutinga, jacú, and jacú-assú. The common domesticated chicken is not native. Among the wading and running birds, the largest is the ema, and there are many other species of both types. In the Amazon lowlands, you'll find white herons (Ardea candidissima), egrets (A. egretta), bitterns (A. exilis), blue herons (A. herodias), scarlet ibises (Ibis rubra), and roseate spoonbills (Platalea ajaja); on higher ground, there's the beautiful peacock heron (A. helias), which is easily domesticated; and in the dry elevated campos, the ceriema (Dicholophus cristatus), prized for its meat, and the jacamin (Psophia crepitans), which is often domesticated. Prominent among the storks is the great black-headed white crane, known as the jaburú (Mycteria americana), found along the Amazon and down the coast, growing up to 4½ ft tall. Among the diving birds, there are fewer species, but some are widely found and abundant. There are only a few duck species, and they seem to be more numerous in southern Brazil than in the Amazon.

The reptilian fauna exhibits an exceptionally large number of interesting genera and species. A great part of the river systems of the country with their flooded areas are highly favourable to the development of reptilian life. Most prominent among these is the American alligator, of which there are, according to Netterer, two genera and eight species in Brazil. They are very numerous in the Amazon and its tributaries and in the Paraguay, and are found in all the rivers of the Atlantic coast. Three of the Brazilian species are voracious and dangerous. The largest of the Amazon species are the jacaré-assú (Caïman niger), jacaré (C. fissipes) and jacaré-tinga (C. sclerops). The Amazon is also the home of one of the largest fresh-water turtles known, the Emys amazonica, locally called the jurará-assú or tartaruga grande. These turtles are so numerous that their flesh and eggs have long been a principal food supply for the Indian population of that region. Another Amazon species, the E. tracaxa, is still more highly esteemed for its flesh, but it is smaller and deposits fewer eggs in the sandy river beaches. Lagartos (Iguanas) and lizards are common everywhere. The ophidians are also numerous, especially in the wooded lowlands valleys, and the poisonous species, though less numerous than others, include some of the most dangerous known—the rattlesnake surucucú (Lachesis rhombeatus), and jararáca (Bothrops). The Amazon region is frequented by the giboia (boa constrictor), and the central plateau by the sucuriú (Eunectes murinus), both distinguished for their enormous size. The batrachians include a very large number of genera and species, especially in the Amazon valley.

The reptile population has an exceptionally large variety of interesting genera and species. A significant part of the country’s river systems and their flooded areas is very conducive to the growth of reptilian life. The most notable among these is the American alligator, of which, according to Netterer, there are two genera and eight species in Brazil. They are quite abundant in the Amazon and its tributaries and in the Paraguay, and can be found in all the rivers along the Atlantic coast. Three of the Brazilian species are aggressive and dangerous. The largest species in the Amazon include the jacaré-assú (Caïman niger), jacaré (C. fissipes), and jacaré-tinga (C. sclerops). The Amazon is also home to one of the largest freshwater turtles known, the Emys amazonica, locally referred to as jurará-assú or tartaruga grande. These turtles are so numerous that their meat and eggs have long been a major food source for the Indigenous people of that area. Another Amazon species, the E. tracaxa, is even more highly valued for its meat, but it is smaller and lays fewer eggs on the sandy riverbanks. Both caimans (Iguanas) and lizards are commonly found throughout the region. Snakes are also abundant, especially in the wooded lowland valleys, and while the venomous species are less numerous, they include some of the most dangerous—like the rattlesnake surucucú (Lachesis rhombeatus) and jararáca (Bothrops). The Amazon region is often visited by the giboia (boa constrictor), and the central plateau by the sucuriú (Eunectes murinus), both known for their massive size. The amphibians comprise a very large number of genera and species, especially in the Amazon valley.

The fauna of the rivers and coast of Brazil is richer in species and individuals than that of the land. All the rivers are richly stocked, and valuable fishing grounds are to be found along the coast, especially that of southern Bahia and Espirito Santo where the garoupa (Serranus) is found in large numbers. Some of the small fish along the coast are highly esteemed for their flavour. Whales were once numerous between Capes St Roque and Frio, but are now rarely seen. Of the edible river fish, the best known is the pirarucú (Sudis gigas), a large fish of the Amazon which is salted and dried for market during the low-water season. Fish is a staple food of the Indian tribes of the Amazon region, and their fishing season is during the period of low water. The visit of Professor Louis Agassiz to the Amazon in 1865 resulted in a list of 1143 species, but it is believed that no less than 1800 to 2000 species are to be found in that great river and its tributaries.

The wildlife in the rivers and along the coast of Brazil is more diverse in both species and numbers than that of the land. All the rivers are teeming with fish, and there are valuable fishing areas along the coast, especially in southern Bahia and Espírito Santo, where large numbers of the garoupa (Serranus) can be found. Some of the smaller fish along the coast are highly valued for their taste. Whales used to be common between Capes St. Roque and Frio, but now they are rarely spotted. Among edible river fish, the most well-known is the pirarucú (Sudis gigas), a large fish from the Amazon that is salted and dried for sale during the low-water season. Fish is a staple food for the indigenous tribes in the Amazon region, and their fishing season coincides with the low-water period. When Professor Louis Agassiz visited the Amazon in 1865, he recorded 1,143 species, but it’s estimated that there are between 1,800 and 2,000 species found in that vast river and its tributaries.

In strong contrast to the poverty of Brazil in the larger mammals is the astonishing profusion of insect life in every part of the country. The Coleoptera and Lepidoptera are especially numerous, both in species and individuals. A striking illustration of this extraordinary profusion was given by the English naturalist H.W. Bates, who found 7000 species of insects in the vicinity of only one of his collecting places on the Amazon (Ega), of which 550 species were of butterflies. Within an hour’s walk of Pará are to be found, he says, about 700 species of butterflies, “whilst the total number found in the British Islands does not exceed 66, and the whole of Europe supports only 321.” (H.W. Bates, The Naturalist on the River Amazons.) One of the rare species of the Amazon Morphos (M. hecuba) measures 8 to 9 in. across its expanded wings. Dipterous insects are also very numerous in species, especially in those of sanguinary habits, such as the mosquito, pium, maroim, carapanā, borochudo, &c. In some places these insects constitute a veritable plague, and the infested regions are practically uninhabitable. The related species of the Oestridae family, which include the widely disseminated chigoe or bicho do pé (Pulex penetrans), and the equally troublesome berne (Cutiterebra noxialis), which is so injurious to animals, are equally numerous. The most numerous of all, however, and perhaps the most harmful to civilized man, are the termites and ants, which are found everywhere in the uninhabited campo and forest regions, as well as in the cultivated districts. Nature has provided several species of animals, birds and reptiles, to feed upon these insects, and various poisonous and suffocating compounds are used to destroy them, but with no great degree of success. It is not uncommon to find once cultivated fields abandoned because of their ravages and to see large campos completely covered with enormous ant-hills. The termites, or “white ants,” are exceptionally destructive because of their habit of tunnelling through the softer woods of habitations and furniture, while some species of ants, like the saúba, are equally destructive to plantations because of the rapidity with which they strip a tree of its foliage. Spiders are represented by a very large number of species, some of which are beautifully coloured. The largest of these is the Mygale with a body 2 in. in length and outstretched legs covering 7 in., a monster strong enough to capture and kill small birds. A large Mygale found on the island of Siriba, of the Abrolhos group, feeds upon lizards, and has been known to attack and kill young chickens. One of the most troublesome pests of the interior is a minute degenerate spider of the genus Ixodes, called carrapato, or bush-tick, which breeds on the ground and then creeps up the grass blades and bushes where it waits for some passing man or beast. Its habit is to bury its head in its victim’s skin and remain there until gorged with blood, when it drops off. Scorpions are common, but are considered less poisonous than some European species.

In stark contrast to the poverty of Brazil regarding larger mammals, there’s an astonishing variety of insect life throughout the country. Beetles and butterflies are particularly abundant, both in terms of species and individual numbers. A striking example of this incredible diversity was noted by the English naturalist H.W. Bates, who discovered 7,000 species of insects near just one of his collection sites along the Amazon (Ega), with 550 species being butterflies. He mentions that within an hour's walk from Pará, around 700 species of butterflies can be found, “while the total number in the British Islands doesn't exceed 66, and all of Europe has only 321.” (H.W. Bates, The Naturalist on the River Amazons.) One of the rare species in the Amazon, the Morphos (M. hecuba), has a wingspan measuring 8 to 9 inches. Two-winged insects are also very numerous, especially blood-feeding ones like mosquitoes, pium, maroim, carapanā, and borochudo, among others. In some areas, these insects become a real plague, making the infested regions nearly unlivable. The related species of the Oestridae family, which includes the widespread chigoe or bicho do pé (Pulex penetrans) and the equally bothersome berne (Cutiterebra noxialis), which harms animals, are also very numerous. However, the most abundant, and perhaps the most harmful to humans, are termites and ants, found everywhere in uninhabited areas and forests, as well as in cultivated regions. Nature has provided various animals, birds, and reptiles to feed on these insects, and several toxic and suffocating substances are used to exterminate them, but not with great success. It’s not uncommon to find once cultivated fields abandoned due to their destruction and to see large campos completely covered in massive ant hills. Termites, or “white ants,” are particularly destructive due to their habit of tunneling through the softer woods of homes and furniture. Some ant species, like the saúba, are similarly harmful to plantations due to how quickly they strip trees of their leaves. Spiders are represented by a wide range of species, some of which are stunningly colorful. The largest is the Mygale, which has a body length of 2 inches and legs that can span 7 inches, strong enough to capture and kill small birds. A large Mygale found on Siriba Island in the Abrolhos group feeds on lizards and has been known to attack and kill young chickens. One of the most annoying pests in the interior is a tiny degenerate spider of the genus Ixodes, known as carrapato or bush-tick, which breeds on the ground and then climbs up grass blades and bushes, where it waits for a passing person or animal. Its behavior involves burying its head in the victim's skin and staying there until it's full of blood, at which point it drops off. Scorpions are common but are considered less poisonous than some European species.

Flora.—Brazil not only is marvellously rich in botanical species, but included at the beginning of the 20th century the largest area of virgin forest on the surface of the earth. The flora falls naturally into three great divisions: that of the Amazon basin where exceptional conditions of heat and moisture prevail; that of the coast where heat, varying rainfall, oceanic influences and changing seasons have greatly modified the general character of the vegetation; and that of the elevated interior, or sertão, where dryer conditions, rocky surfaces, higher sun temperatures and large open spaces produce a vegetation widely different from those of the other two regions. Besides these, the flora of the Paraguay basin varies widely from that of the inland plateau, and that of the Brazilian Guiana region is essentially distinct from the Amazon. The latter region is densely forested from the Atlantic to the Andes, but with a varying width of about 200 m. on the coast to about 900 m. between the Bolivian and Venezuelan llanos, and thus far civilization has made only a very slight impression upon it. Even where settlements have been located, constant effort is required to keep the vegetation down. Along the coast, much of the virgin forest has been cut away, not only for the creation of cultivated plantations, but to meet the commercial demand for Brazil-wood and furniture woods.

Flora.—Brazil is not only incredibly rich in plant species, but at the start of the 20th century, it also had the largest area of untouched forest on the planet. The flora is divided into three main categories: that of the Amazon basin, where exceptional heat and moisture conditions exist; that of the coast, where varying rainfall, oceanic influences, and changing seasons have significantly altered the overall character of the vegetation; and that of the elevated interior, or sertão, where drier conditions, rocky surfaces, higher temperatures from the sun, and vast open spaces create vegetation that is quite different from the other two regions. Additionally, the flora of the Paraguay basin differs greatly from that of the inland plateau, and the vegetation of the Brazilian Guiana region is distinctly separate from that of the Amazon. The Amazon region is densely forested from the Atlantic to the Andes, with widths ranging from about 200 m along the coast to approximately 900 m between the Bolivian and Venezuelan llanos, and so far, civilization has had only a minor impact on it. Even where settlements have been established, constant effort is needed to control the vegetation. Along the coast, much of the untouched forest has been cleared, not only for agricultural plantations but also to satisfy the commercial demand for Brazil-wood and furniture woods.

The chief characteristic of the Amazonian forest, aside from its magnitude, is the great diversity of genera and species. In the northern temperate zone we find forests of a single species, others of three or four species; in this great tropical forest the habit of growth is solitary and an acre of ground will contain hundreds of species—palms, myrtles, acacias, mimosas, cecropias, euphorbias, malvaceas, laurels, cedrellas, bignonias, bombaceas, apocyneas, malpigias, lecythises, swartzias, &c. The vegetation of the lower river-margins, which are periodically flooded, differs in some particulars from that of the higher ground, and the same variation is to be found between the forests of the upper and lower Amazon, and between the Amazon and its principal tributaries. The density of the forest is greatly augmented by the cipós, or lianas, which overgrow the largest trees to their tops, and by a profusion of epiphytes which cover the highest branches. As a rule the trees of the Amazon forest are not conspicuously high, a few species rarely reaching a height of 200 ft. The average is probably less than one-half that height. This is especially true of the flood plains where the annual inundations prevent the formation of humus and retard forest growth. The largest of the Amazon forest trees are the massaranduba (Mimusops elata), called the cow-tree because of its milky sap, the samaúma (Eriodendron samauma) or silk-cotton tree, the páu d’ arco (Tecoma speciosa), páu d’ alho (Catraeva tapia), bacori (Symphonea coccinea), sapucaia (Lecythis ollaria), and castanheira or brazil-nut tree (Bertholletia excelsa). The Amazon region has a comparatively narrow 445 frontage on the Atlantic. In Maranhão, which belongs to the coast region, open spaces or campos appear, though the state is well wooded and its forests have the general characteristics of the lower Amazon. South-east of the Parnahyba the coast region becomes dryer and more sandy and the forests disappear. The coast and tide-water rivers are fringed with mangrove, and the sandy plain reaching back to the margin of the inland plateau is generally bare of vegetation, though the carnahuba palm (Copernicia cerifera) and some species of low-growing trees are to be found in many places. The higher levels of this plain are covered with shrubs and small trees, principally mimosas. The slopes of the plateau, which receive a better rainfall, are more heavily forested, some districts being covered with deciduous trees, forming catingas in local parlance. This dry, thinly-wooded region extends south to the states of Parahyba, where a more regular rainfall favours forest growth nearer the coast. Between Parahyba and southern Bahia forests and open plains are intermingled; thence southward the narrow coastal plain and bordering mountain slopes are heavily forested. The sea-coast, bays and tide-water rivers are still fringed with mangrove, and on the sandy shores above Cape Frio grow large numbers of the exotic cocoa-nut palm. Many species of indigenous palms abound, and in places the forests are indescribably luxuriant. These are made up, as Prince Max zu Neuwied found in southern Bahia in 1817, “of the genera Cocos, Melastoma, Bignonia, Rhexia, Mimosa, Ingá, Bombax, Ilex, Laurus, Myrthus, Eugenia, Jacarandá, Jatropha, Visinia, Lecythis, Ficus, and a thousand other, for the most part, unknown species of trees.” Further inland the higher country becomes more open and the forests are less luxuriant. Giant cacti and spiny scrub abound. Then come the catinga tracts, and, beyond these, the open campos of the elevated plateau, dotted with clumps of low growing bushes and broken by tracts of carrasco, a thick, matted, bushy growth 10 to 12 ft. in height. Formerly this coast region furnished large quantities of Brazil-wood (Caesalpinia echinata), and the river valleys have long been the principal source of Brazil’s best cabinet-wood—rosewood (Dalbergia nigra), jacarandá (Machaeriumfirmum, Benth.), vinhatico (Plathymenia foliosa, Benth.), peroba (Aspidosperma peroba), cedro, &c. The exotic mangabeira (mango) is found everywhere along the coast, together with the bamboo, orange, lemon, banana, cashew, &c.

The main feature of the Amazon rainforest, besides its vast size, is the incredible diversity of plant genera and species. In the northern temperate region, we see forests made up of just one species or a few others, while in this massive tropical forest, trees often grow alone, and just one acre can have hundreds of different species—palms, myrtles, acacias, mimosas, cecropias, euphorbias, malvaceae, laurels, cedrellas, bignonias, bombaceae, apocyneas, malpigias, lecythises, swartzias, etc. The vegetation along the lower riverbanks, which get flooded periodically, is somewhat different from that on higher ground, and the same variations exist between the forests of the upper and lower Amazon, as well as between the Amazon and its major tributaries. The thickness of the forest is greatly increased by the lianas, called ***cipós***, which wrap around the tallest trees, and by a multitude of epiphytes that cover the highest branches. Generally, the trees in the Amazon rainforest are not exceptionally tall, with only a few species occasionally reaching heights of 200 ft. The average height is probably less than half of that. This is especially true in the flood plains where the annual floods prevent humus formation and slow forest growth. The largest trees in the Amazon include the ***massaranduba*** (***Mimusops elata***), known as the cow-tree for its milky sap, the ***samaúma*** (***Eriodendron samauma***) or silk-cotton tree, the ***páu d’ arco*** (***Tecoma speciosa***), ***páu d’ alho*** (***Catraeva tapia***), ***bacori*** (***Symphonea coccinea***), ***sapucaia*** (***Lecythis ollaria***), and the ***castanheira*** or Brazil nut tree (***Bertholletia excelsa***). The Amazon region has a relatively narrow coastline on the Atlantic. In Maranhão, which is part of the coastal region, there are some open areas known as ***campos***, although the state is well-forested and its woods share many characteristics with the lower Amazon. Southeast of the Parnahyba River, the coastal area becomes drier and sandier, leading to the disappearance of forests. The coastline and tidal rivers are lined with mangroves, and the sandy plains extending back to the inland plateau are mostly bare of vegetation, although you can find the carnauba palm (***Copernicia cerifera***) and some lower-growing tree species in many places. The higher parts of this plain are filled with shrubs and small trees, mainly mimosas. The slopes of the plateau, which receive more rainfall, have denser forests, with some areas covered in deciduous trees, referred to locally as ***catingas***. This dry, sparsely wooded region stretches south to the states of Parahyba, where a more consistent rainfall promotes forest growth closer to the coast. Between Parahyba and southern Bahia, forests and open plains mingle; moving further south, the narrow coastal plain and the adjacent mountain slopes are densely forested. The coastline, bays, and tidal rivers are still lined with mangroves, and along the sandy beaches above Cape Frio, there are many exotic coconut palms. Numerous species of native palms thrive, and in some spots, the forests are incredibly lush. As Prince Max zu Neuwied observed in southern Bahia in 1817, they consist of genera such as ***Cocos***, ***Melastoma***, ***Bignonia***, ***Rhexia***, ***Mimosa***, ***Ingá***, ***Bombax***, ***Ilex***, ***Laurus***, ***Myrthus***, ***Eugenia***, ***Jacarandá***, ***Jatropha***, ***Visinia***, ***Lecythis***, ***Ficus***, and countless others, most of which are unknown species of trees. Further inland, the terrain becomes more open, and the forests are less dense. There are many giant cacti and spiny shrubs. Then the ***catinga*** regions appear, followed by the open ***campos*** of the elevated plateau, dotted with clusters of low bushes and interrupted by areas of ***carrasco***, a thick, tangled growth standing 10 to 12 feet tall. In the past, this coastal region provided large amounts of Brazilwood (***Caesalpinia echinata***), and the river valleys have long been the primary source of Brazil’s finest cabinet woods—rosewood (***Dalbergia nigra***), jacarandá (***Machaerium firmum***, Benth.), vinhatico (***Plathymenia foliosa***, Benth.), peroba (***Aspidosperma peroba***), cedar, etc. The exotic ***mangabeira*** (mango) grows everywhere along the coast, alongside bamboo, oranges, lemons, bananas, cashews, etc.

Of the great inland region, which includes the arid campos of the north, the partially-wooded plateaus of Minas Geraes, Goyaz and Matto Grosso, the temperate highlands of the south, and the tropical lowlands of the Paraguay basin, no adequate description can be given without taking each section in detail, which can be done to better advantage in describing the individual states. In general, the carrasco growth extends over the whole central plateau, and heavy forests are found only in the deep river valleys. Those opening northward have the characteristic flora of the Amazon basin. The Paraguay basin is covered with extensive marshy tracts and open woodlands, the palms being the conspicuous feature. The vegetation is similar to that of Paraguay and the Chaco, and aquatic plants are specially numerous and luxuriant. On the temperate uplands of the southern states there are imposing forests of South American pine (Araucaria brasiliensis), whose bare trunks and umbrella-like tops give to them the appearance of open woodland. These forests extend from Paraná into Rio Grande do Sul and smaller tracts are also found in Minas Geraes. Large tracts of Ilex paraguayensis, from which maté, or Paraguay-tea, is gathered, are found in this same region.

Of the vast inland area, which includes the dry fields of the north, the partially wooded plateaus of Minas Gerais, Goiás, and Mato Grosso, the temperate highlands of the south, and the tropical lowlands of the Paraguay basin, no proper description can be given without looking at each section in detail, which is better done by describing the individual states. In general, the carrasco vegetation covers the entire central plateau, and dense forests are found only in the deep river valleys. Those that open to the north have the typical flora of the Amazon basin. The Paraguay basin is filled with large marshy areas and open woodlands, with palms being the most noticeable feature. The vegetation is similar to that of Paraguay and the Chaco, with aquatic plants being especially abundant and lush. In the temperate uplands of the southern states, there are impressive forests of South American pine (Araucaria brasiliensis), whose bare trunks and umbrella-like tops give them the look of open woodland. These forests stretch from Paraná into Rio Grande do Sul, and smaller areas can also be found in Minas Gerais. Large areas of Ilex paraguayensis, from which maté, or Paraguay tea, is harvested, are present in this same region.

The economic plants of Brazil, both indigenous and exotic, are noticeably numerous. Coffee naturally occupies first place, and is grown wherever frosts are not severe from the Amazon south to Paraná. The states of São Paulo, Rio de Janeiro and Minas Geraes are the largest producers, but it is also grown for export in Espirito Santo, Bahia and Ceará. The export in 1905 was 10,820,604 bags of 132 ℔ each, with an official valuation of £21,420,330. Sugar cane, another exotic, has an equally wide distribution, and cotton is grown along the coast from Maranhão to São Paulo. Other economic plants and fruits having a wide distribution are tobacco, maize, rice, beans, sweet potatoes, bananas, cacáo (Theobroma cacao), mandioca or cassava (Manihot utilitissima), aipim or sweet mandioca (M. aipi), guavas (Psidium guayava, Raddi), oranges, lemons, limes, grapes, pineapples, mamão (Carica papaya), bread-fruit (Artocarpus incisa), jack fruit (A. integrifolia), and many others less known outside the tropics. Among the palms there are several of great economic value, not only as food producers but also for various domestic uses. The fruit of the pupunha or peach palm (Guilielma speciosa) is an important food among the Indians of the Amazon valley, where the tree was cultivated by them long before the discovery of America. Humboldt found it among the native tribes of the Orinoco valley, where it is called pirijao. The ita palm, Mauritia, flexuosa (a fan-leaf palm) provides an edible fruit, medullary meal, drink, fibre, roofing and timber, but is less used on the Amazon than it is on the lower Orinoco. The assaí (Euterpe oleracea) is another highly-prized palm because of a beverage made from its fruit along the lower Amazon. A closely-related species or variety (Euterpe edulis) is the well-known palmito or cabbage palm found over the greater part of Brazil, whose terminal phylophore is cooked and eaten as a vegetable. Another highly useful palm is the carnauba or carnahuba (Copernicia cerifera) which supplies fruit, medullary meal, food for cattle, boards and timber, fibre, wax and medicine. The fibre of the piassava (Leopoldinia piassava, or Attalea funifera) is widely used for cordage, brushes and brooms. There are many other palms whose fruit, fibre and wood enter largely into the domestic economy of the natives, but the list given shows how important a service these trees rendered to the aboriginal inhabitants of tropical America, and likewise how useful they still are to the people of tropical Brazil. Another vegetable product of the Amazon region is made from the fruit of the Paullinia sorbilis, Mart., and is known by the name of guaraná. It is largely consumed in Bolivia and Matto Grosso, where it is used in the preparation of a beverage which has excellent medicinal properties. The Brazilian flora is also rich in medicinal and aromatic plants, dye-woods, and a wide range of gum and resin-producing shrubs and trees. The best known of these are sarsaparilla, ipecacuanhá, cinchona, jaborandi and copaiba; vanilla, tonka beans and cloves; Brazil-wood and anatto (Bixa orellana); india-rubber and balata. India-rubber is derived principally from the Hevea guayanensis, sometimes called the Siphonia elastica, which is found on the Amazon and its tributaries as far inland as the foothills of the Andes. Other rubber-producing trees are the maniçoba (Jatropha Glasiovii) of Ceará, and the mangabeira (Hancornia speciosa), of the central upland regions.

The economic plants of Brazil, both native and foreign, are remarkably abundant. Coffee takes the top spot and is cultivated wherever frosts aren’t harsh, from the Amazon to Paraná. The states of São Paulo, Rio de Janeiro, and Minas Gerais are the biggest producers, but it’s also grown for export in Espírito Santo, Bahia, and Ceará. In 1905, exports totaled 10,820,604 bags weighing 132 pounds each, with an official value of £21,420,330. Sugar cane, another introduced crop, is similarly widespread, and cotton is cultivated along the coast from Maranhão to São Paulo. Other widely grown economic plants and fruits include tobacco, corn, rice, beans, sweet potatoes, bananas, cocoa (Theobroma cacao), cassava (Manihot utilitissima), sweet cassava (M. aipi), guavas (Psidium guayava, Raddi), oranges, lemons, limes, grapes, pineapples, papaya (Carica papaya), breadfruit (Artocarpus incisa), jackfruit (A. integrifolia), and many others that are less familiar outside the tropics. Among the palms, there are several of significant economic importance, not only as food sources but also for various everyday uses. The fruit of the peach palm (Guilielma speciosa) is a vital food for the Indigenous people of the Amazon valley, where they cultivated the tree long before America was discovered. Humboldt discovered it among the native tribes of the Orinoco valley, where it’s known as pirijao. The ita palm, Mauritia flexuosa (a fan-leaf palm), provides edible fruit, a starchy meal, drink, fibers, roofing material, and timber, but it’s used less in the Amazon than in the lower Orinoco. The assaí (Euterpe oleracea) is another highly valued palm because of the beverage made from its fruit along the lower Amazon. A closely related species or variety, Euterpe edulis, is the well-known palmito or cabbage palm found throughout much of Brazil, whose terminal bud is cooked and eaten as a vegetable. Another particularly useful palm is the carnauba or carnahuba (Copernicia cerifera), which provides fruit, starchy meal, livestock feed, planks and timber, fibers, wax, and medicine. The fibers from piassava (Leopoldinia piassava or Attalea funifera) are widely used for making ropes, brushes, and brooms. There are many other palms whose fruit, fibers, and wood are important to the daily lives of the locals, but this list shows the significant role these trees played in the lives of the Indigenous people of tropical America, as well as how valuable they still are to the people of tropical Brazil. Another plant product from the Amazon region is derived from the fruit of Paullinia sorbilis, known as guaraná. It’s widely consumed in Bolivia and Mato Grosso, where it’s made into a beverage known for its excellent medicinal properties. The Brazilian flora is also rich in medicinal and aromatic plants, dye-woods, and a variety of gum and resin-producing shrubs and trees. The best-known among these are sarsaparilla, ipecac, cinchona, jaborandi, and copaiba; vanilla, tonka beans, and cloves; Brazilwood and annatto (Bixa orellana); rubber and balata. Rubber primarily comes from the Hevea guayanensis, sometimes called Siphonia elastica, which grows along the Amazon and its tributaries as far inland as the foothills of the Andes. Other rubber-producing trees include maniçoba (Jatropha Glasiovii) from Ceará, and mangabeira (Hancornia speciosa) from the central highlands.

Population.—The first explorers of Brazil reported a numerous Indian population, but, as the sea-coast afforded a larger and more easily acquired food supply than did the interior, the Indian population was probably numerous only in a comparatively small part of this immense territory, along the sea-coast. Modern explorations have shown that the unsettled inland regions of Brazil are populated by Indians only where the conditions are favourable. They are to be found in wooded districts near rivers, and are rarely found on the elevated campos. The immediate result of European colonization was the enslavement and extermination of the Indians along the coast and in all those favoured inland localities where the whites came into contact with them. The southern districts and the Amazon and its tributaries were often raided by slave-hunting expeditions, and their Indian populations were either decimated, or driven farther into the inaccessible forests. But there is no record that the inland districts of western and north-western Brazil were treated in this manner, and their present population may be assumed to represent approximately what it was when the Europeans first came. According to the census of 1890 the Indian population was 1,295,796, but so far as the migratory tribes are concerned the figures are only guesswork. A considerable number of these Indians have been gathered together in aldeas under the charge of government tutors, but the larger part still live in their own villages or as nomads.

Population.—The first explorers of Brazil reported a large Indian population, but since the coastal areas offered a bigger and more easily obtainable food supply than the interior, the Indian population was likely only numerous in a relatively small area of this vast territory along the coast. Modern explorations have shown that the unsettled inland regions of Brazil are populated by Indians only where conditions are favorable. They can be found in forested areas near rivers and are seldom seen in the elevated campos. The immediate result of European colonization was the enslavement and extermination of the Indians along the coast and in those favored inland areas where the Europeans came into contact with them. The southern regions and the Amazon and its tributaries were often raided by slave-hunting expeditions, which either decimated the Indian populations or forced them deeper into the inaccessible forests. However, there are no records indicating that the inland districts of western and northwestern Brazil faced similar treatment, and their current population may be assumed to resemble what it was when Europeans first arrived. According to the 1890 census, the Indian population was 1,295,796, but the figures for migratory tribes are mostly speculative. Many of these Indians have been gathered into aldeas under government tutors, but the majority still live in their own villages or as nomads.

Down to the beginning of the 19th century the white colonists were almost exclusively Portuguese. The immigration from countries other than Portugal during the first half of that century was small, but before its close it increased rapidly, particularly from Italy. Fully nine-tenths of these immigrants, including those from the mother country, were of the Latin race. The introduction of African slaves followed closely upon the development of agricultural industries, and continued nominally until 1850, actually until 1854, and according to some authors until 1860. About 1826 it was estimated that the negro population numbered 2,500,000 or three times the white population of that period. The unrestricted intermixture of these three races forms the principal basis of the Brazilian population at the beginning of the 20th century. Brazil has never had a “colour line,” and there has never been any popular prejudice against race mixtures. According to the census of 1872 the total population was 9,930,478, of which 1,510,806 were slaves; the race enumeration gave 3,787,289 whites, 1,959,452 Africans, 386,955 Indians, and 3,801,782 mixed bloods. The Indian population certainly exceeded the total given, and the white population must have included many of mixed blood, the habit of so describing themselves being common among the better classes of South American mestizos. The census of 1890 increased the total population to 14,333,915, which, according to an unofficial analysis (Statesman’s Year Book, 1905), was made up of 6,302,198 whites, 4,638,495 mixed bloods, 2,097,426 Africans, and 1,295,796 Indians. This analysis, if correct, indicates that the vegetative increase of the whites has been greater than that of the Africans and mixed races. This is not the conclusion of many observers, 446 but it may be due to the excessive infant mortality among the lower classes, where an observance of the simplest sanitary laws is practically unknown. The census of the 31st of December 1900 was strikingly defective; it was wholly discarded for the city of Rio de Janeiro, and had to be completed by office computations in the returns from several states. The compilation of the returns was not completed and published until May 1908, according to which the total population was 17,318,556, of which 8,825,636 were males and 8,492,920 females. Not including the city of Rio de Janeiro, whose population was estimated at 691,565 in conformity with a special municipal census of 1906, the total population was 16,626,991, of which 15,572,671 were Roman Catholics, 177,727 Protestants, 876,593 of other faiths. The returns also show a total of 3,038,500 domiciles outside the federal capital, which gives an average of 5.472 to the domicile. These returns will serve to correct the exaggerated estimate of 22,315,000 for 1900 which was published in Brazil and accepted by many foreign publications.

Up to the beginning of the 19th century, the white colonists were mostly Portuguese. Immigration from countries other than Portugal during the first half of that century was minimal, but it grew rapidly before the century ended, especially from Italy. About 90% of these immigrants, including those from Portugal, were of Latin descent. The introduction of African slaves closely followed the growth of agricultural industries and continued nominally until 1850, actually until 1854, and according to some sources until 1860. Around 1826, it was estimated that the Black population numbered 2,500,000, or three times the white population of that time. The unrestricted mixing of these three races formed the main foundation of the Brazilian population at the start of the 20th century. Brazil has never had a "color line," and there has been no widespread prejudice against race mixing. According to the 1872 census, the total population was 9,930,478, with 1,510,806 being slaves; the racial breakdown gave 3,787,289 whites, 1,959,452 Africans, 386,955 Indigenous people, and 3,801,782 mixed-race individuals. The Indigenous population certainly exceeded the total reported, and the white population likely included many of mixed descent, as it was common for the upper classes of South American mestizos to describe themselves this way. The 1890 census increased the total population to 14,333,915, which, according to an unofficial analysis (Statesman’s Year Book, 1905), consisted of 6,302,198 whites, 4,638,495 mixed-race individuals, 2,097,426 Africans, and 1,295,796 Indigenous people. This analysis, if accurate, suggests that the white population has grown faster than that of Africans and mixed races. However, many observers disagree, possibly due to high infant mortality rates among the lower classes, where even basic sanitary practices are often neglected. The census on December 31, 1900, was notably flawed; it was completely disregarded for the city of Rio de Janeiro, and had to be supplemented by office calculations from various states. The returns were not finalized and published until May 1908, which showed the total population was 17,318,556, with 8,825,636 males and 8,492,920 females. Not counting the city of Rio de Janeiro, whose population was estimated at 691,565 based on a special municipal census from 1906, the total population was 16,626,991, including 15,572,671 Roman Catholics, 177,727 Protestants, and 876,593 of other faiths. The returns also indicated a total of 3,038,500 households outside the federal capital, averaging 5.472 people per household. These figures will help correct the inflated estimate of 22,315,000 that was published in Brazil and accepted by many foreign publications.

The racial character of the people is not uniform throughout the republic, the whites predominating in the southern states, the Indians in Amazonas and, probably, Matto Grosso, and the mixed races in the central and northern coast states. The excess of whites over the coloured races in the southern states is due to their smaller slave population and to the large number of immigrants attracted to them. Slavery was not abolished until the 13th of May 1888, but a number of successful colonies had already been founded in these states. Other colonies were founded in Bahia, Espirito Santo and Rio de Janeiro during the same period, but they were unsuccessful, partly because of the competition of slave labour. Since the abolition of slavery immigration has poured a large number of labourers into the coffee-producing states, and with beneficial results. This strengthening of the white population of the South with fresh European blood must eventually divide Brazil into two distinct sections: the white states of the south, and the mixed or coloured states of the north. The introduction of European immigrants dates from 1818 when a Swiss colony was located at Nova Friburgo, near Rio de Janeiro, and it was continued under the direction and with the aid of the imperial government down to the creation of the republic. Since then the state governments have assumed charge of immigration, and some of them are spending large sums in the acquisition of labourers. The old system of locating immigrants in colonies, or colonial nuclei, which involved an enormous outlay of money with but slight benefit to the country, has been superseded by a system of locating the immigrants on the large plantations under formal contracts. In some of the coffee districts these contracts have resulted very profitably to the Italian labourers. The total number of colonists and immigrants entering Brazil between 1804 and 1902, inclusive, according to official returns, was 2,208,353. The arrivals fluctuate greatly in number from year to year, influenced by the prevailing economic conditions in the country. At first the Portuguese outnumbered all other nationalities in the immigration returns, but since the abolition of slavery the Italians have passed all competitors and number more than one-half the total arrivals. Of the 700,211 immigrants located in the state of São Paulo from 1827 to the end of 1896, no less than 493,535 were Italians, and their aggregate throughout the republic was estimated in 1906 at more than 1,100,000. The German immigration, of which so much has been written for political ends, has been greatly over-estimated; trustworthy estimates in 1906 made the German contingent in the population vary from 350,000 to 500,000. They are settled chiefly in colonies in the southern states, and form a most desirable body of settlers.

The racial makeup of the population is not uniform across the country; white people are more common in the southern states, while the indigenous population is found in Amazonas and, likely, Matto Grosso, and mixed races are prevalent in the central and northern coastal states. The surplus of white individuals compared to people of color in the southern states is due to their smaller enslaved population and the high number of immigrants that were drawn to those areas. Slavery wasn’t abolished until May 13, 1888, but several successful colonies had already been established in these states. Other colonies were set up in Bahia, Espirito Santo, and Rio de Janeiro during the same time, but they struggled, partly due to the competition from slave labor. Since the end of slavery, a significant influx of laborers has moved to the coffee-producing states, leading to positive outcomes. The growing white population in the South, bolstered by fresh European immigrants, is likely to eventually create a divide in Brazil between the white states in the south and the mixed or colored states in the north. The introduction of European immigrants began in 1818 with a Swiss colony established in Nova Friburgo, near Rio de Janeiro, and continued with support from the imperial government until the republic was formed. Since then, state governments have taken over immigration, some investing large amounts in recruiting laborers. The old method of settling immigrants in colonies, which required significant investment with minimal benefit to the country, has been replaced by a system that places immigrants on large plantations under formal contracts. In certain coffee regions, these contracts have been quite profitable for the Italian laborers. Official records show that between 1804 and 1902, a total of 2,208,353 colonists and immigrants entered Brazil. The number of arrivals varies significantly each year based on the country's economic conditions. Initially, Portuguese immigrants were the most numerous, but since the abolition of slavery, Italians have surpassed all others, now making up more than half of the total entrants. From 1827 to the end of 1896, out of 700,211 immigrants settled in São Paulo, a staggering 493,535 were Italians, and it was estimated in 1906 that their numbers across the country exceeded 1,100,000. The German immigration, often discussed for political reasons, has been greatly exaggerated; reliable estimates from 1906 suggested that the German population ranged from 350,000 to 500,000. They primarily reside in colonies in the southern states and are considered a highly desirable group of settlers.

Divisions and Towns.—The republic is divided into twenty states and one federal district, which are the same as the provinces and “municipio neutro” of the empire. Their names also remain unchanged, except that of the federalized district in which the national capital is located, which is called the “districto federal.” The republic has no territories, although Amazonas, Matto Grosso, Pará and Goyaz cover an immense region of uninhabited and only partially explored territory. The states are subdivided into comarcas, or judicial districts, and into municipios, or townships, which is the smallest autonomous division. The constitution provides for the autonomy of the municipalities in order to safeguard the permanence of representative institutions. The parochia, or parish, an ecclesiastical division, is often used for administrative purposes, but it has no political organization. The names, areas, and populations of the states, together with the names and populations of their capitals, are as follows:—

Divisions and Towns.—The republic is divided into twenty states and one federal district, which are the same as the provinces and “municipio neutro” of the empire. Their names also remain unchanged, except for the federal district where the national capital is located, which is called the “districto federal.” The republic has no territories, although Amazonas, Matto Grosso, Pará, and Goyaz cover a vast area of uninhabited and only partially explored land. The states are subdivided into comarcas, or judicial districts, and into municipios, or townships, which are the smallest autonomous divisions. The constitution ensures the autonomy of the municipalities to maintain the stability of representative institutions. The parochia, or parish, is an ecclesiastical division often used for administrative purposes, but it does not have a political organization. The names, areas, and populations of the states, along with the names and populations of their capitals, are as follows:—

States. Area,1
Sq. miles.
Population2 State Capitals. Population,3
Census
1890.
Census
1890.
Census
1900.
Alagôas 22,584 511,440 649,273 Maceió 31,498
Amazonas 742,123 147,915 249,756 Manáos 38,720
Bahia 164,650 1,919,802 2,117,956 São Salvador4 174,412
Ceará 40,253 805,687 849,127 Fortaleza 40,902
Espirito Santo 17,313 135,997 209,783 Victoria 16,887
Federal District 538 522,651 691,565 Rio de Janeiro 522,651
Goyaz 288,549 227,572 255,284 Goyaz4 17,181
Maranhão 177,569 430,854 499,308 S. Luiz do Maranhão4 29,308
Matto Grosso 532,370 92,827 118,025 Cuyabá 17,815
Minas Geraes 221,961 3,184,099 3,594,471 Ouro Preto5 59,249
Pará 443,922 328,455 445,356 Belem4 50,064
Parahyba 28,855 457,232 490,784 Parahyba 18,645
Paraná 85,455 249,491 327,136 Curityba 24,553
Pernambuco 49,575 1,030,224 1,178,150 Recife4 111,556
Piauhy 116,529 267,609 334,328 Therezina 31,523
Rio de Janeiro 26,635 276,884| 274,317 Nictheroy 34,269
Rio Grande do Norte 22,196 268,273 1,149,070 Natal 13,725
Rio Grande do Sul 91,337 897,455 926,035 Porto Alegre 52,421
Santa Catharina 28,633 283,769 320,289 Desterro6 30,637
São Paulo 112,312 1,384,753 2,282,279 São Paulo 64,934
Sergipe 15,093 310,926 356,264 Ararajú 16,336
Brazil 3,228,452 14,333,915 17,318,556    

Communications.—Railway construction in Brazil dates from 1852, when work was initiated on the Mauá railway running from the head of the bay of Rio de Janeiro to the foot of the Serra where Petropolis is situated. The road is 10 m. long, and its first section was opened to traffic on April 30, 1854, and its second December 16, 1856. The mountain section, 5½ m. long, which uses the Riggenbach system from the terminal to Petropolis, was constructed between 1881 and 1883. The development of railway construction in Brazil has been impeded to a great extent by two unfavourable conditions—by the chain of mountains or plateau escarpments which follow the coast line and obstruct communication with the interior, and by the detached positions of the settlements along the Atlantic, which compel 447 the building of lines from many widely separated points on the coast into a sparsely populated hinterland. A majority of the ports, from which these roads are built, are small and difficult of access, and the coasting trade is restricted to vessels carrying the Brazilian flag. The only ports having a rich and well-populated country behind them are Rio de Janeiro and Santos, and these are the terminals of long lines of railway which are being slowly extended farther into the interior.

Communications.—Railway construction in Brazil began in 1852, when work started on the Mauá railway connecting the bay of Rio de Janeiro to the foot of the Serra where Petropolis is located. The line is 10 miles long, and its first section opened to traffic on April 30, 1854, with the second section following on December 16, 1856. The mountain segment, measuring 5½ miles and using the Riggenbach system from the terminal to Petropolis, was built between 1881 and 1883. The growth of railway construction in Brazil has been significantly hindered by two main issues: the mountain range and plateau edges along the coastline, which obstruct communication with the interior, and the scattered locations of settlements along the Atlantic, which require building lines from many distantly spaced points on the coast into a sparsely populated inland area. Most ports where these roads are constructed are small and hard to access, and the coastal trade is limited to ships flying the Brazilian flag. The only ports that have a rich and well-populated hinterland are Rio de Janeiro and Santos, which serve as terminals for extensive railway lines that are slowly being extended further into the interior.

The total mileage under traffic at the beginning of 1905 was 10,600 m., divided into 94 separate lines. There were also 745 m. under construction, 1740 m. under survey, and about 1600 m. projected. Of the 94 lines under traffic, 45 were operating by virtue of national and 49 by provincial and state concessions. They were grouped in the official reports of 1905 as follows:—

The total mileage in use at the start of 1905 was 10,600 meters, spread across 94 individual lines. Additionally, there were 745 meters under construction, 1,740 meters being surveyed, and around 1,600 meters planned. Of the 94 operational lines, 45 were running under national agreements and 49 under provincial and state concessions. They were categorized in the official reports of 1905 like this:—

Government lines (21):— Miles.  
 Administered by the state (6) 2228  
 Leased to private parties (15) 2174  
  —— 4402
Private lines (24)—
 With national interest guarantees (12) 1290  
 Without such guarantees (12) 815  
  —— 2105
Private and state lines operated by virtue of state
 concessions, with and without interest guarantees (49)   4093
    ———
    10,600
    ======

The policy of the national government has been gradually to lease all its lines except the Estrada de Ferro Central do Brazil, which is retained for sentimental reasons. This great railway runs from the city of Rio de Janeiro westward to the city of São Paulo and northward into the interior of Minas Geraes, with a total length at the beginning of 1905 of 1002 m., and an extension of about 104 m. to Pirapora, on the São Francisco river. It was formerly known as the “E. de F. Dom Pedro II.,” in honour of the sovereign who encouraged its construction. The main line has a gauge of 63 in. (1.60 m.) and affords an outlet for a number of inland metre-gauge lines. The first two sections of this great railway, which carry it across the coast range, were opened to traffic in 1858 and 1864. The series of trunk lines terminating at the port of Santos are owned by private companies and are formed by the São Paulo, Paulista and Mogyana lines, the first owned by an English company, and the other two by Brazilian companies. The Mogyana carries the system entirely across the state of São Paulo into the western districts of Minas Geraes. The principal trunk lines (the São Paulo and Paulista) have a broad gauge, while their extensions and feeders have a narrow gauge. The comparatively short lines extending inland from the ports of São Salvador (Bahia), Pernambuco, Maceió, Victoria and Paranaguá serve only a narrow zone along the coast. To encourage the investment of private capital in the construction of railways, the general railway law of 1853 authorized the national government to grant guarantees of interest on the capital invested. Under this law companies were organized in England for building the São Paulo railway, and the lines running from Bahia and Pernambuco toward the São Francisco river. Political considerations also led to the construction of similar lines in the states of Rio Grande do Norte, Parahyba, Alagôas, Sergipe, Espirito Santo, Paraná, Santa Catharina and Rio Grande do Sul. The result was that the national treasury became burdened with a heavy annual interest charge, payable abroad in gold, which did not tend to diminish, and had a long period to run before the expiration of the contracts. The government finally determined to take over these guaranteed lines from the foreign companies owning them, and a statement issued in October 1902 showed that 1335 m. had been acquired at a cost of £14,605,000 in bonds, the interest on which is £584,200 a year against an aggregate of £831,750 in interest guarantees which the government had been paying. In addition to this economy it was calculated that the lines could be leased for £132,000 a year. The loan finally issued in London to cover the purchase of these railways aggregated £16,619,320. All but three of these lines had been leased in 1905.

The national government's policy has gradually been to lease all its railways except for the Estrada de Ferro Central do Brazil, which is kept for sentimental reasons. This major railway stretches from Rio de Janeiro west to São Paulo and north into the heart of Minas Gerais, measuring 1,002 km at the beginning of 1905, with an additional 104 km to Pirapora on the São Francisco River. It was previously known as the “E. de F. Dom Pedro II.” in honor of the ruler who promoted its construction. The main line has a gauge of 1.60 m (63 in.) and serves as an outlet for several inland metre-gauge lines. The first two sections of this significant railway, which cross the coastal range, were opened for traffic in 1858 and 1864. The trunk lines that end at the port of Santos are owned by private companies and consist of the São Paulo, Paulista, and Mogyana lines, with the first owned by an English company and the other two by Brazilian firms. The Mogyana line runs entirely through the state of São Paulo into the western districts of Minas Gerais. The main trunk lines (São Paulo and Paulista) have a broad gauge, while their extensions and feeders use a narrow gauge. The relatively short lines stretching inland from the ports of São Salvador (Bahia), Pernambuco, Maceió, Vitória, and Paranaguá serve only a limited area along the coast. To promote private investment in railway construction, the general railway law of 1853 allowed the national government to provide interest guarantees on the invested capital. This led to companies being established in England for building the São Paulo railway and the lines from Bahia and Pernambuco towards the São Francisco River. Political factors also prompted the building of similar lines in the states of Rio Grande do Norte, Paraíba, Alagoas, Sergipe, Espírito Santo, Paraná, Santa Catarina, and Rio Grande do Sul. Consequently, the national treasury became burdened with a substantial annual interest payment, due in gold overseas, which did not lessen and had a considerable duration before the contracts expired. Eventually, the government decided to take over these guaranteed lines from the foreign companies that owned them, and a statement issued in October 1902 revealed that 1,335 km had been acquired for £14,605,000 in bonds, with annual interest of £584,200 compared to £831,750 in interest guarantees the government had been paying. In addition to this saving, it was estimated that the lines could be leased for £132,000 a year. The loan issued in London to cover the purchase of these railways totaled £16,619,320. By 1905, all but three of these lines had been leased.

The use of tramways for the transportation of passengers in cities dates from 1868, when the first section of the Botanical Garden line of Rio de Janeiro was opened to traffic. The line was completed with its surplus earnings and continued under the control of the American company which built it until 1882, when it was sold to a Brazilian company. Subsequently the tramways of the city have been mostly concentrated in the hands of a single Canadian company. All the large cities of Brazil are liberally provided with tramways, those of the city of São Paulo, where electric traction is used, being noticeably good. The substitution of electricity for animal traction was begun in São Salvador in 1906. Mules are universally employed for animal traction, and narrow gauge lines with single-mule trams are generally used where the traffic is light.

The use of trams for passenger transport in cities started in 1868 when the first part of the Botanical Garden line in Rio de Janeiro opened for service. The line was completed using its extra earnings and remained under the control of the American company that built it until 1882 when it was sold to a Brazilian company. After that, the city's tramways were mostly managed by a single Canadian company. All the major cities in Brazil have a good network of trams, with the ones in São Paulo, which use electric traction, being particularly well-regarded. The switch from animal traction to electricity began in São Salvador in 1906. Mules are commonly used for animal traction, and narrow gauge lines with single-mule trams are typically seen where traffic is light.

Brazil is lamentably deficient in steamship communication considering its importance in a country where the centres of population are separated by such distances of coasts and river. Previous to the creation of the republic, the coastwise service was performed by two national companies (now united), and partially by foreign lines calling at two or more ports. A considerable number of foreign sailing vessels also carried on an important coasting trade. The coastwise service centres at Rio de Janeiro, from which port the Lloyd Brazileiro sends steamers regularly south to Montevideo, and north to Pará and Manáos, calling at the more important intermediate ports. From Montevideo river steamers are sent up the Paraná and Paraguay rivers to Corumbá and Cuyabá, in the state of Matto Grosso. The company receives a heavy subsidy from the national government. Parts of this coastwise traffic are covered by other companies, two of which receive subsidies. There were also six lines of river steamers receiving subsidies from the national government in 1904, and the aggregate paid to these and the coastwise lines was 2,830,061 milreis. The largest of the river lines is the Amazon Steam Navigation Co. (an English corporation), whose service covers the main river and several of its principal tributaries. Two subsidized companies maintain services on the São Francisco river—one below the Paulo Affonso falls, and the other above, the latter covering 854 m. of navigable channel between Joazeiro and Pirapora. Besides these there are other companies engaged in the coasting and river traffic, either with subsidies from the state governments, as feeders for railway lines, or as private unsubsidized undertakings.

Brazil unfortunately lacks sufficient steamship communication, which is surprising given the country's size and the vast distances between population centers along the coast and rivers. Before the republic was established, coastwise services were provided by two national companies that have since merged, along with some foreign lines that visited two or more ports. A significant number of foreign sailing ships also participated in the coastwise trade. The primary hub for this service is Rio de Janeiro, from where the Lloyd Brazileiro dispatches steamers regularly to Montevideo in the south and Pará and Manáos in the north, stopping at the key intermediate ports. From Montevideo, river steamers travel up the Paraná and Paraguay rivers to Corumbá and Cuyabá in the state of Matto Grosso. The company receives a substantial subsidy from the national government. Other companies also handle parts of this coastwise traffic, with two of them receiving subsidies. In 1904, there were six lines of river steamers that received national government subsidies, totaling 2,830,061 milreis for these and the coastwise lines. The largest river line is the Amazon Steam Navigation Co. (an English corporation), which services the main river and several key tributaries. Two subsidized companies operate on the São Francisco river—one below the Paulo Affonso falls and the other above, the latter serving 854 km of navigable channel between Joazeiro and Pirapora. In addition, there are other companies involved in coastwise and river traffic, some receiving subsidies from state governments as feeders for railway lines, while others operate independently without subsidies.

The telegraph lines, which date from 1852, are owned and operated by the national government, with the exception of the lines constructed by private railway companies, and the cable lines of the Amazon and the coast. The government lines extend from Pará to the Argentine and Uruguayan frontiers, where they connect with the telegraph systems of those republics, and from Rio de Janeiro westward across country, in great part unsettled, to the capitals of Goyaz and Matto Grosso. At Pará connexion is made with the cable laid in the bed of the Amazon to Manáos, which is owned and operated by a subsidized English company. At Vizeu, Pará, connexion is made with a French cable to the West Indies and the United States, and at Pernambuco with two cable lines to Europe. A coastwise cable runs from Pará to Montevideo with double cables between Pernambuco and Montevideo. There were in 1903 a total of 15,150 m. of land lines, with 29,310 m. of wire and 1102 telegraph offices. The government maintains reciprocal rates with most of the private railway lines.

The telegraph lines, established in 1852, are owned and operated by the national government, except for those built by private railway companies and the cable lines along the Amazon and the coast. The government lines stretch from Pará to the borders with Argentina and Uruguay, connecting to the telegraph systems of those countries, and from Rio de Janeiro moving west across largely unsettled land to the capitals of Goyaz and Matto Grosso. In Pará, there is a connection with the cable that runs along the Amazon River to Manáos, which is run by a subsidized English company. In Vizeu, Pará, there is a link to a French cable heading to the West Indies and the United States, and in Pernambuco, there are two cable lines to Europe. A coastal cable runs from Pará to Montevideo with double cables between Pernambuco and Montevideo. As of 1903, there were a total of 15,150 km of land lines, with 29,310 km of wire and 1,102 telegraph offices. The government offers reciprocal rates with most private railway lines.

The Brazilian postal service is under the general supervision of the minister of communications and public works, and is administered by a director-general. Owing to the size of the country and the sparsely-populated state of a large part of the interior, the transportation of the mails is attended with much difficulty and expense. Although the postal rates are high, the service is not self-sustaining, the receipts for 1904 being 7,018,344 milreis, against a total expenditure of 10,099,545 milreis. There were 2847 post offices (agencias), of which 2166 were of the 4th or lowest grade. Brazil is a member of the Postal Union, and like Argentina exacts higher nominal rates of postage upon outgoing mail than those agreed upon to cover the depreciation in her own currency. The letter rate was at first 200 reis (nearly 5½ d.), but it has been increased to 300 reis, which is equivalent to 8 d. at par and 4½ d. at 15 d. exchange. An inland parcel post was in operation long before the overthrow of the monarchy, and a similar service with Portugal has been successfully maintained for a number of years, notwithstanding the difficulties interposed by customs regulations. National and international money order systems are also in operation.

The Brazilian postal service is overseen by the minister of communications and public works and is run by a director-general. Due to the size of the country and the sparsely populated nature of much of the interior, transporting mail is very challenging and costly. Even though postal rates are high, the service isn’t financially self-sufficient, with receipts for 1904 totaling 7,018,344 milreis, compared to total expenses of 10,099,545 milreis. There were 2,847 post offices (agencias), with 2,166 of them being of the 4th or lowest grade. Brazil is part of the Postal Union and, like Argentina, charges higher nominal rates for outgoing mail than what was agreed upon to account for the depreciation of its own currency. The letter rate was initially 200 reis (almost 5½ d.), but it has been raised to 300 reis, which is equivalent to 8 d. at par and 4½ d. at a 15 d. exchange rate. An inland parcel post system was in place well before the monarchy was overthrown, and a similar service with Portugal has successfully continued for several years, despite the challenges posed by customs regulations. There are also national and international money order systems in operation.

The constitution of Brazil provides that the coastwise trade shall be carried on by national vessels, but this provision did not go into effect until 1896. And even then, because of the insufficient number of Brazilian vessels it was provided in the regulations that foreign vessels could be enrolled in that trade by using the Brazilian flag and employing a certain proportion of Brazilians on the crew. One of the purposes of this restrictive provision was that of creating a national merchant marine, but the disinclination of Brazilians for maritime pursuits has been a serious obstacle to its realization. In 1901 the merchant navy included 228 steamers of 91,465 tons net, and 343 sailing vessels of 76,992 tons net. These vessels are all engaged in the coasting and river trade of the country. Efforts have been made, however, to engage in foreign trade, and subsidies were offered for a passenger and freight service to the United States. On the 23rd of February 1906 the government completed a new contract with the Lloyd Brazileiro Company for its coastwise and river service, and included clauses providing for a line to the United States. This foreign service (monthly) began in August 1906.

The constitution of Brazil states that coastal trade must be conducted by national vessels, but this rule didn't take effect until 1896. Even then, due to the lack of Brazilian ships, the regulations allowed foreign vessels to operate in this trade by flying the Brazilian flag and employing a certain percentage of Brazilians in the crew. One of the goals of this limitation was to develop a national merchant marine, but the general lack of interest among Brazilians in maritime activities has been a significant barrier to achieving this. In 1901, the merchant navy had 228 steamers totaling 91,465 tons and 343 sailing vessels totaling 76,992 tons. All these vessels operated in the coastal and river trade of the country. However, there were attempts to start foreign trade, and subsidies were offered for passenger and freight services to the United States. On February 23, 1906, the government finalized a new contract with the Lloyd Brazileiro Company for its coastal and river services, which included provisions for a line to the United States. This foreign service started in August 1906, operating monthly.

Although the coast of Brazil shows a large number of bays and tide-water river channels which are apparently suitable for commercial ports, a close examination of them reduces the number of good ports to less than a dozen. The others are either difficult of access, or are rendered practically useless by dangerous reefs, sand bars and shoals. Important improvements have been undertaken in some of these ports. Those at Santos and Manáos, for example, have produced good results. In many cases, as at Rio de Janeiro, Santos and Manáos, the cost and maintenance of the new port-works are met by an additional tax on merchandise, though the immediate expenditures are met by advances from the national treasury, and at Rio de Janeiro by a foreign loan.

Although Brazil's coast has many bays and tidal river channels that seem suitable for commercial ports, a closer look reveals that there are fewer than a dozen good ports. The rest are either hard to reach or mostly unusable due to dangerous reefs, sandbars, and shallow waters. Some important improvements have been made in certain ports. For instance, the upgrades at Santos and Manaus have yielded positive results. In many cases, like in Rio de Janeiro, Santos, and Manaus, the costs and maintenance of the new port developments are covered by an extra tax on goods, while the initial expenses are funded by advances from the national treasury, and in Rio de Janeiro's case, by a foreign loan.

Commerce.—The imports, exports and domestic trade of Brazil 448 are by reason of their magnitude and peculiar character the most important in South America, though the per capita aggregate is less than that of Argentina. Although an agricultural country, Brazil does not produce all its own bread and meat, and the imports of wheat, wheat flour, rice, fish, jerked beef and preserved meats, lard, butter, beans, potatoes, packed fruits and vegetables, Indian corn and other food-stuffs, are surprisingly large. Since the creation of the republic, extreme protective measures have caused the creation of a large number of cotton factories and other manufactures, but these are able to supply only a part of the consumption, and the importation of cotton and woollen fabrics, silks, ready-made clothing, boots and shoes, &c., is large. Modern industrial development in some of the states has greatly increased the importation of machinery, electric supplies, materials for construction, coal, &c. Kerosene oil also figures among the principal imports, and beef cattle are imported for consumption by some cities. The exports cover a wide range of agricultural, pastoral and natural productions, including coffee, rubber, sugar, cotton, cocoa, Brazil nuts, maté (Paraguay tea), hides, skins, fruits, gold, diamonds, manganese ore, cabinet woods and medicinal leaves, roots and resins. Coffee and rubber, however, represent from 80 to 90% of the official valuation of all exports. High import duties are imposed by the national government and export duties by the states. The exchange of domestic products between the states is greatly restricted through lack of cheap transportation facilities, and by the suicidal imposition of import and export duties by the states, either for revenue or for the protection of home industries.

Commerce.—The imports, exports, and domestic trade of Brazil 448 are significant due to their size and unique nature, making them the most important in South America, even though the per capita total is lower than Argentina's. Although Brazil is an agricultural country, it doesn't produce all of its own bread and meat, and the imports of wheat, wheat flour, rice, fish, jerked beef and preserved meats, lard, butter, beans, potatoes, canned fruits and vegetables, corn, and other food items are surprisingly high. Since the republic was established, strict protective measures have led to the rise of many cotton factories and other manufacturing industries, but these can only meet a portion of consumer needs, leading to significant imports of cotton and wool fabrics, silk, ready-made clothing, boots, shoes, etc. Modern industrial development in some states has greatly boosted the import of machinery, electrical supplies, construction materials, coal, etc. Kerosene oil is also among the main imports, and some cities import beef cattle for consumption. The exports include a wide array of agricultural, pastoral, and natural products, such as coffee, rubber, sugar, cotton, cocoa, Brazil nuts, maté (Paraguay tea), hides, skins, fruits, gold, diamonds, manganese ore, cabinet woods, and medicinal leaves, roots, and resins. Coffee and rubber alone account for 80 to 90% of the official value of all exports. The national government imposes high import duties, while state governments impose export duties. The exchange of domestic products between states is heavily limited due to the lack of affordable transportation options and the harmful imposition of import and export duties by states, either for revenue or to protect local industries.

According to a summary for the six years 1901 to 1906, derived from official sources and published in the annual Retrospecto of the Jornal do Commercio, of Rio de Janeiro, the values of the imports and exports for those years (exclusive of coin), reduced to pounds sterling at the average rate of exchange (or value of one milreis) for each year, were as follows:—

According to a summary for the six years from 1901 to 1906, based on official sources and published in the annual Retrospecto of the Jornal do Commercio of Rio de Janeiro, the values of imports and exports for those years (excluding currency), converted to pounds sterling at the average exchange rate (or value of one milreis) for each year, were as follows:—

Year. Average
Value of
the Milreis
in Pence.
Imports in
Pounds Ster.
Exports in
Pounds Ster.
    £ £
1901 11.33 21,377,270 40,621,993
1902 11.93 23,279,418 36,437,456
1903 11.99 24,207,811 36,883,175
1904 12.22 25,915,423 39,430,136
1905 15.94 29,830,050 44,643,113
1906 16.17 33,204,041 53,059,480

Nearly 76½% of the exports of 1906 were of coffee and rubber, the official valuations of these being: coffee 245,474,525 milreis gold (£27,615,884), and rubber (including maniçoba and mangabeira), 124,941,433 milreis gold (£14,055,911).

Nearly 76½% of the exports in 1906 were coffee and rubber, with official valuations of: coffee at 245,474,525 milreis gold (£27,615,884), and rubber (including maniçoba and mangabeira) at 124,941,433 milreis gold (£14,055,911).

Brazil is essentially an agricultural country. No other country has been able to equal Brazil in the production of coffee, and under better labour conditions the country might compete with the foremost in the production of cane sugar, cotton and tobacco. Besides these it might easily excel in producing many of the tropical fruits for which there is a commercial demand. During the colonial period sugar cane was cultivated from Parahyba S. to the vicinity of Santos, and sugar was the principal export of the colony. Before the middle of the 19th century coffee became one of the leading exports, and its cultivation in the states of São Paulo, Rio de Janeiro and Minas Geraes has been so increased since that time that it represents over four-fifths in value of the total export of agricultural produce. The principal sugar-producing states are Alagôas, Sergipe, Pernambuco, Bahia and Rio de Janeiro, and the production is between 200,000 and 300,000 tons, the greater part of which is consumed in the country. Cotton has been widely cultivated since early colonial days, principally in the northern Atlantic states. Tobacco is also widely cultivated, and the product of some states, such as Bahia, Minas Geraes and Goyaz, has a high local reputation for its excellence. Cacáu (cocoa) is cultivated extensively in the Amazon Valley and along the coast as far south as southern Bahia, and forms one of the leading exports. In 1906 São Paulo offered premiums for its cultivation in the state. Rice has been cultivated in places, but without much success, although the quality produced compared favourably with the imported article. Indian corn grows luxuriantly everywhere, but it does not mature well in the humid regions of the Amazon region and the coast. The product of the elevated inland regions is good, but the costs of transportation and the small profits afforded have prevented its extensive cultivation, and it is imported from the La Plata republics for consumption along the coast. Much has been said in regard to the production of wheat, and efforts have been made in various places to promote its cultivation. It was once cultivated in Rio Grande do Sul with some success, and it has been grown in Minas Geraes and São Paulo, but in no case have the returns been sufficient to give it a permanent standing among the productions of the country. The great majority of the people are unused to wheaten bread, using the coarse flour of the mandioca root instead, consequently the demand for wheat and flour is confined to the large cities, which can obtain them from Argentina more cheaply than they can be produced in the country. One of the most common and important productions of Brazil is mandioca (Manihot), of which there are two well-known species, M. utilissima and M. aipi. The first named, which is poisonous in its native state, is the cassava of Spanish America. From it is made farinha de mandioca, which is the bread of the common people of Brazil, and tapioca. The poison is extracted by soaking the bruised or grated roots in water, after which the coarse flour is roasted. Mandioca was cultivated by the natives before the discovery of America, and the wide area over which it has been distributed warrants the conclusion that the discovery of its value as a food and the means of separating its poisonous properties must have occurred at a very remote period. The peanut, or ground-nut (Arachis hypogaea), is another widely-cultivated plant, dating from pre-Columbian times. Very little attention has thus far been given to the cultivation of fruit for exportation, the exceptions being bananas for the Argentine and Uruguayan markets, and oranges and pineapples for European markets. The coast region from Ceará to Rio de Janeiro is adapted to the cultivation of a great variety of fruits of a superior quality. Ceará, Bahia, and Rio de Janeiro are celebrated for their oranges, and Pernambuco for its delicious pineapples. Tangerines, lemons, limes, grapes, guavas, figs, cashews or cajús (Anacardium occidentale), mangabas (Hancornia speciosa), joboticabas (Eugenia cauliflora and E. jaboticaba, Mart.), cocoa-nuts, mangos, fruitas de conde (Anona squamosa), plantains, &c. are produced in abundance and with little labour. In some parts of southern Brazil the fruits and vegetables of the temperate zone do well, but within the tropics they thrive well only at a considerable elevation above sea-level. Apples, peaches, quinces, raspberries, strawberries, &c., are produced under such conditions, but the flavour of their kind grown in colder climates is usually wanting. The vegetable productions are less numerous, but they include sweet potatoes, cabbages, cauliflower, lettuce, beans, peas, onions, garlic, tomatoes, okra, radishes, cucumbers, couve, chuchu (Sechium edule), and aipim (Manihot aipi). The white potato, known as “batata inglez” (English potato), is grown in elevated localities, but it deteriorates so greatly after the first planting that fresh imported seed is necessary every second or third year.

Brazil is primarily an agricultural country. No other nation has matched Brazil's coffee production, and under better labor conditions, it could compete with the best in producing sugar cane, cotton, and tobacco. It could also easily excel in growing many tropical fruits in demand commercially. During colonial times, sugar cane was farmed from Paraíba do Sul to near Santos, and sugar was the colony's main export. By the mid-19th century, coffee had become one of the top exports, and its cultivation in São Paulo, Rio de Janeiro, and Minas Gerais has expanded so much since that it now accounts for over four-fifths of the total value of agricultural exports. The main sugar-producing states are Alagoas, Sergipe, Pernambuco, Bahia, and Rio de Janeiro, producing between 200,000 and 300,000 tons, most of which is consumed domestically. Cotton has been extensively grown since the early colonial period, mainly in the northern Atlantic states. Tobacco is also widely cultivated, with some states like Bahia, Minas Gerais, and Goiás known for their high-quality produce. Cocoa is widely grown in the Amazon Valley and along the coast down to southern Bahia, making it one of the leading exports. In 1906, São Paulo offered incentives to boost its cultivation in the state. Rice has been cultivated in some areas, but not very successfully, though its quality compares favorably to imported rice. Corn grows abundantly everywhere, but it doesn't mature well in the humid Amazon region and along the coast. The corn from higher inland areas is good, but high transportation costs and low profits have hindered its widespread cultivation, leading to imports from the La Plata republics for coastal consumption. There has been considerable discussion about wheat production, and attempts have been made in various places to enhance its cultivation. It was once successfully grown in Rio Grande do Sul and has been cultivated in Minas Gerais and São Paulo, but in none of these cases have the yields been enough to secure a lasting role for wheat in the country's agriculture. Most people are not used to wheat bread, preferring coarse flour made from cassava root, so the demand for wheat and flour is limited to major cities that can obtain them more cheaply from Argentina than they can be produced locally. One of the most common and significant crops in Brazil is mandioca (Manihot), which has two well-known species, M. utilissima and M. aipi. The first, which is toxic in its raw form, is the cassava of Spanish America. From it, farinha de mandioca, the staple food of the Brazilian people, and tapioca are made. The poison is removed by soaking the bruised or grated roots in water, after which the coarse flour is roasted. Mandioca was cultivated by natives long before the discovery of America, and its widespread distribution suggests that its value as food and the method of removing its toxic properties were recognized at a very early time. The peanut, or groundnut (Arachis hypogaea), is another widely cultivated plant that dates back to pre-Columbian times. Little attention has been paid so far to fruit cultivation for export, except for bananas aimed at the Argentine and Uruguayan markets, and oranges and pineapples for Europe. The coastal region from Ceará to Rio de Janeiro is suited for growing a wide variety of high-quality fruits. Ceará, Bahia, and Rio de Janeiro are famous for their oranges, while Pernambuco is known for its sweet pineapples. Tangerines, lemons, limes, grapes, guavas, figs, cashews (Anacardium occidentale), mangabas (Hancornia speciosa), joboticabas (Eugenia cauliflora and E. jaboticaba, Mart.), coconuts, mangos, frutas de conde (Anona squamosa), plantains, and more are abundantly produced with little effort. In some southern Brazil regions, temperate zone fruits and vegetables grow well, but in tropical areas, they only thrive at higher elevations. Apples, peaches, quinces, raspberries, strawberries, and others are grown under those conditions, but they usually lack the flavor of those grown in cooler climates. Vegetable production is less diverse but includes sweet potatoes, cabbages, cauliflower, lettuce, beans, peas, onions, garlic, tomatoes, okra, radishes, cucumbers, couve, chuchu (Sechium edule), and aipim (Manihot aipi). The white potato, known as “batata inglez” (English potato), is grown in higher locations but deteriorates significantly after the first planting, requiring fresh imported seeds every two to three years.

The pastoral industries, which date from early colonial times, have suffered many vicissitudes, and their development has failed to keep pace with the country’s growth in population. Horses are used to some extent for riding, but very little for carriage and draught purposes, consequently there has been no great incentive for their breeding. They are largely used and raised in Rio Grande do Sul, but in the warmer regions of the north only to a limited extent. The hardier mules are generally employed for draught, carriage, and saddle purposes in every part of the country, and their breeding is a lucrative industry in the southern states. Cattle-raising is the principal industry in Rio Grande do Sul, and receives considerable attention in Minas Geraes, Matto Grosso, Santa Catharina, Paraná, Piauhy and Rio Grande do Norte. It was estimated that there were 30,000,000 head of cattle in the republic in 1904, but the estimate was unquestionably too large. A very large part of the jerked beef consumed in Brazil is imported from Argentina and Uruguay, and some beef cattle also are imported. These importations at Rio de Janeiro in 1906 were 12,464,170 kilograms of jerked beef and 12,575 head of cattle. In the Rio Branco region of Amazonas and in Piauhy, where the national government has long been the owner of extensive cattle ranges, the industry is in a state of decadence. This is partly due to such pests as the vampire bat and bush ticks (carrapatos), and partly to the unprogressiveness of the cattlemen. Cattle-raising was once a flourishing industry on the island of Marajó, at the mouth of the Amazon, and it is followed to some extent at Alemquer and other points along the Amazon, but the cattle are small, and commonly in bad condition. In southern Bahia the industry has been nearly extinguished through increasing aridity and droughts, but in the state of Rio de Janeiro the planters are increasing their herds. Minas Geraes produces cheese, butter and milk, as well as beef cattle for neighbouring cities. Matto Grosso classifies cattle-raising as a principal industry, but under present conditions the accessible markets are too small for any large development. In Rio Grande do Sul, where it has attained its greatest development, about 400,000 beeves are slaughtered annually for the manufacture of jerked beef (xarque), beef extract, &c. Little attention has been given to sheep in Brazil except in the southern states, and even there the flocks are small. They were to be found in Ceará and Piauhy in colonial times, and small flocks are still to be seen in the latter state, but no use is made of their wool, and the market for mutton is extremely limited because of popular prejudices. Woollen manufactures have been established in Rio de Janeiro, São Paulo and Rio Grande do Sul. The exportation of wool amounted to 1,130,160 ℔ in 1906. Goats have been found highly profitable in many of the middle Atlantic states, where the long dry seasons render the campos unsuitable for cattle pasturage. The export of goat skins from these states is large. Swine do well in all parts of the country, especially in Minas Geraes, São Paulo, Rio de Janeiro, Paraná and Rio Grande do Sul, and domestic pork and lard are slowly supplanting the heavily-taxed foreign products.

The pastoral industries, which have been around since early colonial times, have faced many ups and downs, and their growth hasn’t kept up with the country’s population increase. Horses are used a bit for riding, but not much for pulling carriages or working, so there hasn’t been a strong motivation to breed them. They are mostly raised and used in Rio Grande do Sul, but in the warmer northern regions, their use is limited. Hardier mules are generally used for pulling, riding, and carriage work all over the country, and breeding them is a profitable industry in the southern states. Cattle ranching is the main industry in Rio Grande do Sul and is also significant in Minas Gerais, Mato Grosso, Santa Catarina, Paraná, Piauí, and Rio Grande do Norte. It was estimated that there were 30,000,000 cattle in the republic in 1904, but that estimate was likely too high. A large portion of the jerked beef consumed in Brazil is imported from Argentina and Uruguay, along with some beef cattle. In 1906, Rio de Janeiro imported 12,464,170 kilograms of jerked beef and 12,575 head of cattle. In the Rio Branco region of Amazonas and in Piauí, where the national government has owned large cattle ranges for a long time, the industry is declining. This decline is partly due to pests like vampire bats and bush ticks, and partly because of the lack of progress among the cattlemen. Cattle ranching was once thriving on the island of Marajó at the mouth of the Amazon and is still practiced to some extent at Alemquer and other locations along the Amazon, but the cattle are small and often in poor condition. In southern Bahia, cattle ranching has almost disappeared due to increasing dryness and droughts, but in Rio de Janeiro, ranchers are expanding their herds. Minas Gerais produces cheese, butter, and milk, as well as beef cattle for nearby cities. Mato Grosso considers cattle ranching a primary industry, but under current conditions, the nearby markets are too small for significant growth. In Rio Grande do Sul, where it has developed the most, about 400,000 cattle are slaughtered each year for jerked beef, beef extract, and other products. There’s been little focus on sheep in Brazil except in the southern states, and even there, the flocks are small. Sheep were present in Ceará and Piauí during colonial times, and small flocks can still be seen in the latter state, but their wool isn’t utilized, and the market for mutton is very limited because of local preferences. Wool manufacturing has been established in Rio de Janeiro, São Paulo, and Rio Grande do Sul. Wool exports amounted to 1,130,160 pounds in 1906. Goats have proven to be very profitable in many of the mid-Atlantic states, where the long dry seasons make the fields unsuitable for cattle grazing. The export of goat skins from these states is significant. Pigs thrive throughout the country, particularly in Minas Gerais, São Paulo, Rio de Janeiro, Paraná, and Rio Grande do Sul, and domestically produced pork and lard are gradually replacing the heavily taxed foreign products.

Although the coast and river fisheries of Brazil are numerous and valuable, cured fish is one of the staple imports, and foreign products 449 are to be found even along the Amazon. In the Amazon valley fish is a principal article of food, and large quantities of pirarucú (Sudis gigas) are caught during the season of low water and prepared for storage or market by drying in the sun. This and the collection of turtle eggs for their oil, or butter, are chiefly Indian industries, and contribute largely to the support of the native population of that region. Along the coast the best known fisheries are among the Abrolhos islands and in the shallow waters of Espirito Santo, where the garoupa, pargo and vermelho (species of Serranus) abound in great numbers.

Although Brazil has many valuable coast and river fisheries, cured fish is a staple import, and foreign products 449 can even be found along the Amazon. In the Amazon valley, fish is a major food source, and large quantities of pirarucú (Sudis gigas) are caught during the dry season and prepared for storage or sale by drying in the sun. This, along with the collection of turtle eggs for their oil or butter, is primarily done by Indigenous people and significantly supports the local population. Along the coast, the most well-known fisheries are around the Abrolhos islands and in the shallow waters of Espirito Santo, where garoupa, pargo, and vermelho (species of Serranus) are abundant.

The extractive or forest industries of Brazil were among the first to engage the attention of Europeans, and have always been considered a principal source of colonial and national wealth. The varied uses of india-rubber in modern times, however, have given them a greatly enhanced importance and value. Of the exports of 1905, 36% were of this class, while those of the pastoral and mining industries combined were not quite 6½%. In 1906 the percentages were 31 and 6.67, showing a considerable loss for the former and a slight gain for the latter. The principal products of this class are india-rubber, maté, Brazil nuts, vegetable wax, palm fibre, cabinet woods, and medicinal leaves, roots, resins, &c. Before the discovery of the cheaper aniline colours, dye-woods were among the most valuable products of the country; in fact, Brazil derives her name from that of a dye-wood (Brazil-wood—Caesalpinia echinata), known as bresill, brasilly, bresilji, braxilis, or brasile long before the discovery of America (see Humboldt’s Géographic du nouveau continent, tom. ii. p. 214), which for many generations was the most highly prized of her natural productions. Of the total exports of this group (1905) very nearly 90% was of india-rubber, which percentage was reduced to 85 in the following year. The exportation for 1906 was 69,761,123 ℔ of Hevea, 5,871,968 ℔ of maniçoba, and 1,440,131 ℔ of mangabeira rubber, the whole valued at 124,941,433 milreis gold. The dried leaves and smaller twigs of maté (Paraguayan tea—Ilex paraguayensis) are exported to the southern Spanish American republics, where (as in Rio Grande do Sul) the beverage is exceedingly popular. The export in 1906 amounted to 127,417,950 ℔, officially valued at 16,502,881 milreis gold. The collection of Brazil nuts along the Amazon and its tributaries is essentially a poor man’s industry, requiring no other plant than a boat. The harvest comes in January and February, in the rainy season, and the nut-gatherers often come one or two hundred miles in their boats to the best forests. The nuts are the fruit of the Bertholletia excelsa, one of the largest trees of the Amazon forest region, and are enclosed, sixteen to eighteen in number, in a hard, thick pericarp. Another nut-producing tree is the sapucaia (Lecythis ollaria), whose nuts are enclosed in a larger pericarp, and are considered to be better flavoured than those first described. The crop is a variable one, the export in 1905 having been 198,226 hectolitres, while that of 1906 was 96,770 hectolitres. It could undoubtedly be largely increased. Vegetable wax, which is an excellent substitute for beeswax, is a product of the carnahuba palm (Copernicia cerifera), and is an important export from Ceará. Palm, or piassava fibre, derived from the piassava palm, is used in the manufacture of brooms, brushes, &c. It is found as far south as southern Bahia, and the export could be very largely increased. The export of cabinet woods is not large, considering the forest area of Brazil and the variety and quality of the woods. This is principally due to the cost and difficulties of transporting timbers to the coast. The export is confined principally to rosewood. Of the medicinal plants, the best-known products are ipecacuanhá, sarsaparilla, copaiba, jaborandi and cinchona, but this is only a part of the list. Besides these, tonka beans, anatto, vanilla, and castor-oil seeds form a part of the exports.

The extractive or forestry industries in Brazil were among the first to attract European interest and have always been seen as a key source of colonial and national wealth. However, the various uses of rubber today have significantly increased their importance and value. In 1905, 36% of exports came from this category, while the combined exports from the pastoral and mining industries were just under 6.5%. In 1906, those percentages were 31 and 6.67, indicating a notable decline for the former and a slight increase for the latter. The main products in this category include rubber, maté, Brazil nuts, vegetable wax, palm fiber, cabinet woods, and medicinal leaves, roots, resins, etc. Before the advent of cheaper aniline dyes, dye-woods were among the most valuable products of the country; in fact, Brazil gets its name from a dye-wood (Brazil-wood—Caesalpinia echinata), known as bresill, brasilly, bresilji, braxilis, or brasile long before America was discovered (see Humboldt’s Géographique du nouveau continent, tom. ii. p. 214), which for many generations was the most sought-after of her natural products. In 1905, nearly 90% of the total exports from this group were rubber, a percentage that fell to 85 the following year. The exports for 1906 included 69,761,123 pounds of Hevea, 5,871,968 pounds of maniçoba, and 1,440,131 pounds of mangabeira rubber, worth a total of 124,941,433 milreis in gold. The dried leaves and smaller twigs of maté (Paraguayan tea—Ilex paraguayensis) are sent to southern Spanish American countries, where (like in Rio Grande do Sul) the drink is extremely popular. In 1906, exports reached 127,417,950 pounds, officially valued at 16,502,881 milreis in gold. Collecting Brazil nuts along the Amazon and its tributaries is mainly a low-budget operation that requires nothing but a boat. The harvest takes place in January and February during the rainy season, and nut collectors often travel one or two hundred miles by boat to the best forests. The nuts come from the Bertholletia excelsa, one of the largest trees in the Amazon, and they are found enclosed in a hard, thick shell, usually containing sixteen to eighteen nuts. Another nut-producing tree is the sapucaia (Lecythis ollaria), which has nuts in a larger shell and is considered to have a better flavor than the first. The yield varies, with exports in 1905 at 198,226 hectoliters, while 1906 saw a drop to 96,770 hectoliters. There is definitely potential for increasing the yield. Vegetable wax, which serves as an excellent substitute for beeswax, is obtained from the carnahuba palm (Copernicia cerifera) and is an important export from Ceará. Piassava fiber from the piassava palm is used to make brooms and brushes and can be found as far south as southern Bahia, with potential for significant export growth. The export of cabinet woods is relatively small, given Brazil's vast forest area and the variety and quality of its woods. This limitation is primarily due to the costs and challenges of transporting timber to the coast, with exports mainly consisting of rosewood. Among medicinal plants, well-known products include ipecacuanha, sarsaparilla, copaiba, jaborandi, and cinchona, but that's only part of the list. Additionally, tonka beans, annatto, vanilla, and castor-oil seeds are also part of the exports.

The mineral exports are surprisingly small. Gold was discovered by the Portuguese soon after their settlement of the coast in the 16th century, but the washings were poor and attracted little attention. The richer deposits of Minas Geraes were discovered about 1693, and those of Matto Grosso early in the following century. Abandoned placer mines are to be found in every part of the unsettled interior, showing how thoroughly it had been explored by gold-hunters in those early days. Some good mines, like Morro Velho and the abandoned Gongo Soco, have been developed in Minas Geraes, but the great majority are small and not very productive. Diamonds were discovered in Minas Geraes, near the town now called Diamantina, during the first half of the 18th century, the dates given ranging from 1725 to 1746, but the productiveness of the district has greatly decreased. Diamonds have also been found in Bahia, Goyaz and Paraná. Other precious stones found in Brazil are the topaz, ruby aquamarine, tourmaline, chrysoberyl, garnet and amethyst. Among the minerals are silver, platinum, copper, iron, lead, manganese, chromium, quicksilver, bismuth, arsenic and antimony, of which only iron and manganese have been regularly mined. The copper deposits of Minas Geraes are said to be promising. Manganese is mined in Minas Geraes for export. Iron ores have been found in most of the states, and are especially abundant in Minas Geraes. The Ypanema mine and ironworks, near Sorocaba, São Paulo, which belong to the national government, have been in operation since 1810 and small charcoal forges were in operation in colonial times and supplied the mines with a considerable part of the iron needed by them. Many of the richer deposits have never been developed because of a lack of fuel and limestone. Bituminous coal of an inferior quality is mined to a limited extent in Rio Grande do Sul, and another mine has been opened in Santa Catharina. These coal deposits extend from Rio Grande do Sul north into the state of São Paulo. Salt, which does not figure in the list of exports, is produced along the coast between Pernambuco and Cape St Roque. The annual production is about 240,000 tons.

The mineral exports are surprisingly small. Gold was discovered by the Portuguese shortly after they settled on the coast in the 16th century, but the initial findings were poor and didn’t attract much interest. The richer deposits in Minas Gerais were found around 1693, and those in Mato Grosso emerged early in the next century. You can find abandoned placer mines throughout the unsettled interior, showing how thoroughly gold hunters explored the area back then. Some good mines, like Morro Velho and the abandoned Gongo Soco, have been developed in Minas Gerais, but most are small and not particularly productive. Diamonds were discovered in Minas Gerais, near the town now called Diamantina, in the first half of the 18th century, with dates ranging from 1725 to 1746, but the area's productivity has significantly declined. Diamonds have also been found in Bahia, Goiás, and Paraná. Other precious stones found in Brazil include topaz, ruby, aquamarine, tourmaline, chrysoberyl, garnet, and amethyst. Among the minerals are silver, platinum, copper, iron, lead, manganese, chromium, quicksilver, bismuth, arsenic, and antimony, though only iron and manganese are regularly mined. The copper deposits in Minas Gerais are said to be promising. Manganese is mined in Minas Gerais for export. Iron ores have been located in most states, especially in Minas Gerais. The Ypanema mine and ironworks near Sorocaba, São Paulo, which are owned by the national government, have been operating since 1810, and small charcoal forges were already functioning in colonial times, supplying the mines with a substantial portion of the iron they needed. Many of the richer deposits haven't been developed due to a lack of fuel and limestone. Bituminous coal of inferior quality is mined on a limited scale in Rio Grande do Sul, and another mine has been opened in Santa Catarina. These coal deposits stretch from Rio Grande do Sul north into the state of São Paulo. Salt, which is not included in the export list, is produced along the coast between Pernambuco and Cape St. Roque, with an annual output of about 240,000 tons.

To illustrate the comparative productiveness and relationship of these sources of national wealth and industry, the following official returns of export for the years 1905 and 1906 are arranged in the four general classes previously discussed, the values being in Brazilian gold milreis, worth 2s. 3d. or 54.6 cents to the milreis:—

To show the relative productivity and connection of these sources of national wealth and industry, the official export data for the years 1905 and 1906 is organized into the four general categories previously mentioned, with values listed in Brazilian gold milreis, equivalent to 2s. 3d. or 54.6 cents per milreis:—

Agricultural.
  1905.
Milreis, gold.
1906.
Milreis, gold.
Coffee 190,404,576 245,474,525
Cotton 10,290,790 14,726,492
Cacau 9,240,313 12,323,922
Tobacco 7,335,163 8,283,150
Sugar 3,608,476 5,388,596
Bran7 1,490,312 1,128,761
Cottonseed 964,074 1,084,742
Mandioca flour 692,079 789,913
Fruits 606,678 714,332
Castor-oil seeds 214,016 333,250
  ———— ————
  224,846,477 290,247,683
Natural and Forest.
Rubber:
 Mangabeira 1,286,672 1,376,014
 Maniçoba 7,418,559 7,335,870
 Hevea (Pará) 119,434,947 116,229,549
Maté (Paraguay tea) 11,088,108 16,502,881
Brazil nuts 2,064,049 1,190,177
Palm wax (Carnahuba) 1,847,273 3,733,478
Cabinet woods 390,070 318,873
Piassaya fibre 336,668 347,323
Medicinal leaves, roots, resins, &c 191,534 263,137
  ———— ————
  143,331,142 147,297,302
Pastoral and Animal.
Salted hides 7,010,498 9,691,180
Dry hides 5,330,440 7,675,715
Skins 4,117,590 4,639,512
Horse hair 307,505 403,541
Horns 276,172 277,488
Wool 142,414 354,045
Beef extract, &c 81,607 110,925
  ———— ————
  17,266,226 23,152,406
Mineral Products.
Gold, in bars 3,734,469 4,379,160
Manganese ore 2,958,462 1,594,486
Monazite sand 889,231 881,289
Precious stones 633,916 1,480,260
  ———— ————
  8,216,078 8,335,195
Miscellaneous.
Old metals8. 263,506 382,073
Sundry products 2,177,512 2,225,163
  ———— ————
  2,441,018 2,607,236
  ————— —————
Total, all products 396,827,679 471,639,822

Manufactures.—Before the establishment of the republic very little attention had been given to manufacturing industries beyond what was necessary to prepare certain crude products for market. Sugar and rum were essentially plantation products down to the last ten years of the empire, when central usines using improved machinery and methods were introduced as a means of saving the sugar plantations from ruin. The crude methods of preparing jerked beef were also modified to some extent by better equipped abattoirs and establishments for preparing beef extract, preserved meats, &c. There were also mills for crushing the dried maté leaves, cigar and 450 cigarette factories, small chocolate factories, hat factories, brick and tile yards, potteries, tanneries, saddleries, and many other small industries common to all large communities. Considerable protection was afforded to many of these industries by the customs tariff of that time, but protection did not become an acknowledged national policy until after 1889. After that time the duties on imports were repeatedly and largely increased, both as a means of raising larger revenues and as an encouragement to manufacturing enterprise. Although the protective tariffs thus imposed have resulted in a large increase in manufacturing industries, some of them have been antagonistic to the productive interests of the country, as in the case of weaving mills which use imported yarns. Other industries are carried on entirely with imported materials, and are national only in name. Among these are flour mills, factories for the cutting of wire nails and making hollow ware from sheet iron, and factories for the manufacture of umbrellas, boots and shoes, &c. The greatest progress has been made in the manufacture of cotton fabrics, principally of the plainer and coarser grades used by the common people. There were 155 of these factories in 1895, but in 1905 only 108 were in operation, with 715,000 spindles, and about 37,000 operatives. Nearly one-half of these were weaving mills, using imported yarn. The factories are widely distributed, and some are favoured by state legislation in addition to the national tariff. The largest and best equipped of them are located in the federal states of Rio de Janeiro and São Paulo, though the greater part of the raw cotton used comes from the northern states and pays high freight rates. The manufacture of woollen blankets, cashmeres, flannels, &c., had also undergone noteworthy development and is carried on in fifteen factories, located principally in Rio Grande do Sul, Rio de Janeiro and São Paulo. Biscuit-making is represented by a large number of factories, for the most part in Rio de Janeiro and São Paulo, and there are a number of breweries of the most modern type in the same two states. The manufacture of boots and shoes has also received much attention, but the materials used are for the most part imported. Among other manufactures are butter and cheese, canned fruits and vegetables, glass and earthenware, printing and wrapping paper, furniture, matches, hats, clothing, pharmaceutical products, soaps and perfumery, ice, artificial drinks, cigars and cigarettes, fireworks and candles.

Manufactures.—Before the republic was formed, very little focus was placed on manufacturing industries beyond what was needed to prepare some basic products for sale. Sugar and rum were primarily plantation products until the last ten years of the empire, when central factories using improved machinery and methods were introduced to prevent the sugar plantations from failing. The basic techniques for making jerked beef were also somewhat updated with better-equipped slaughterhouses and facilities for producing beef extract and preserved meats, etc. There were also mills for crushing dried maté leaves, along with cigar and cigarette factories, small chocolate factories, hat factories, brick and tile yards, potteries, tanneries, saddleries, and many other small industries typical of large communities. Many of these industries received significant protection from the customs tariffs of that time, but protection didn’t become an official national policy until after 1889. After that point, tariffs on imports were repeatedly and significantly increased, both to generate higher revenues and to encourage manufacturing businesses. Although the protective tariffs led to a substantial growth in manufacturing industries, some of them negatively impacted the productive interests of the country, like weaving mills that used imported yarns. Other industries operated solely with imported materials and were national only in name. This includes flour mills, factories for producing wire nails and hollow ware from sheet iron, and manufacturing plants for umbrellas, boots and shoes, etc. The most significant progress has been in cotton fabric manufacturing, mainly in the simpler and coarser grades used by regular people. In 1895, there were 155 of these factories, but by 1905, only 108 were still operational, with 715,000 spindles and about 37,000 workers. Nearly half of these were weaving mills that used imported yarn. The factories are spread out across various locations, and some benefit from state laws in addition to the national tariffs. The largest and best-equipped are found in the federal states of Rio de Janeiro and São Paulo, although most of the raw cotton used comes from the northern states, which incurs high shipping costs. The production of wool blankets, cashmere, flannel, etc., has also seen notable growth, carried out in fifteen factories mainly located in Rio Grande do Sul, Rio de Janeiro, and São Paulo. There are many biscuit-making factories, mostly in Rio de Janeiro and São Paulo, and several modern breweries in the same two states. The production of boots and shoes has also garnered significant attention, but most of the materials used are imported. Other manufactured goods include butter and cheese, canned fruits and vegetables, glass and ceramics, printing and wrapping paper, furniture, matches, hats, clothing, pharmaceuticals, soaps and perfumes, ice, soft drinks, cigars and cigarettes, fireworks, and candles.

Government.—The overthrow of the monarchy by a military revolt in Rio de Janeiro on 15th November 1889, resulted in the creation of a federal republic under the name of United States of Brazil (Estados Unidos do Brazil). The constitution under which the republic is governed was drafted by a constituent assembly convened on the 15th of November 1890, and was adopted on the 24th of February 1891. The supreme powers of the nation are vested in three partially independent branches of government—executive, legislative, and judicial—represented by the president and his cabinet, a national congress of two chambers, and a supreme tribunal. The states forming the federation consist of the twenty provinces and municipal district of the empire, but the number may be increased or diminished by the states concerned with the approval of the national congress. The states are self-governed, and have exclusive control of the public lands, mines, industries, and all local affairs. They have the sole right also to impose duties on exports and taxes upon real estate, industries and professions, and transfers of property. Among other things they are charged with the supervision and support of primary education, with the maintenance of order, and with the organization and support of a system of state courts. Both the national and state governments exercise the right to impose stamp and consumption taxes, and the municipalities likewise are permitted to impose licence and consumption taxes. The national government reserves for itself the exclusive right to direct the foreign affairs of the republic, to maintain an army and navy, to impose duties on imports, to regulate foreign commerce, to collect port dues, to issue money and create banks of issue, and to maintain a postal and national telegraph service. It also supervises secondary and superior education, issues patents, and provides federal courts for the trial of cases amenable to federal laws. The national government is forbidden to interfere in the peculiar affairs of the states except to repel foreign invasion, to maintain a republican form of government, to re-establish order at the request of a state, or to enforce federal laws and sentences. The states are forbidden, likewise, to tax federal property, to tax inter-state commerce, to impose duties of their own on foreign imports, or to resist the execution of judicial sentences originating in other states. The separation of church and state is provided for by the constitution, and both the nation and the states are forbidden to establish, subsidize or restrict the exercise of any religious worship. Foreigners are eligible to Brazilian citizenship, and the right of suffrage is conferred upon all male citizens over twenty-one years of age, except beggars, illiterates, the rank and file of the armed forces, members of monastic orders, &c., bound by private vows, and all unregistered citizens.

Government.—The overthrow of the monarchy by a military coup in Rio de Janeiro on November 15, 1889, led to the establishment of a federal republic called the United States of Brazil (Estados Unidos do Brazil). The constitution that governs the republic was drafted by a constituent assembly that met on November 15, 1890, and was adopted on February 24, 1891. The supreme powers of the nation are divided among three semi-independent branches of government—executive, legislative, and judicial—represented by the president and his cabinet, a national congress with two chambers, and a supreme court. The states in the federation consist of the twenty provinces and municipal districts of the former empire, but this number can change with the consent of the national congress. The states enjoy self-governance and have exclusive control over public lands, mines, industries, and all local matters. They have the exclusive right to impose duties on exports as well as taxes on real estate, industries and professions, and property transfers. They are also responsible for overseeing and supporting primary education, maintaining order, and organizing a system of state courts. Both the national and state governments can impose stamp and consumption taxes, and municipalities can also impose license and consumption taxes. The national government retains the exclusive right to manage the foreign affairs of the republic, maintain armed forces, impose duties on imports, regulate foreign trade, collect port fees, issue currency and establish banks, and maintain postal and national telecommunication services. It also oversees secondary and higher education, issues patents, and provides federal courts for cases related to federal laws. The national government is prohibited from intervening in the specific matters of the states except to repel foreign invasions, uphold a republican form of government, restore order at a state's request, or enforce federal laws and rulings. States cannot tax federal property, tax interstate commerce, impose their own duties on foreign imports, or resist the enforcement of judicial decisions from other states. The constitution ensures the separation of church and state, preventing both the national and state governments from establishing, funding, or restricting any religious practices. Foreigners can qualify for Brazilian citizenship, and the right to vote is granted to all male citizens over twenty-one, excluding beggars, illiterates, members of the armed forces who are ranked as enlistees, members of monastic orders bound by private vows, and all unregistered citizens.

The executive power of the nation is vested in a president, elected for a term of four years by a direct vote of the electors. He must be a native Brazilian over thirty-five years of age, in the full enjoyment of his political rights, and is ineligible for the next succeeding term. A vice-president is elected at the same time and under the same conditions, who is president of the senate ex officio, and succeeds to the presidency in case the office becomes vacant during the last two years of the presidential term. Should the vacancy occur during the first two years of the term, a new election must be held. The president receives a salary of 120,000 milreis and the vice-president of 36,000 milreis. The president is advised and assisted by a cabinet of six ministers, viz. foreign affairs; finance; agriculture, industry and commerce;9 communications (Viacao) and public works;9 war; and marine. The ministers are appointed and removed by the president, take no part in the sessions of congress, and are responsible to the president alone for their advisory acts. The president sanctions and promulgates, or vetoes, or ignores the laws, and resolutions voted by congress, and issues decrees and regulations for their execution. His veto may be over-ridden by a two-thirds vote in each chamber, and permitting ten days to pass without signing an act is considered as acquiescence and it is promulgated by congress. The president is charged with the duties (among others) of commanding the armed forces of the republic, appointing the prefect of the national capital, designating members of the supreme tribunal and diplomatic representatives for the approval of the senate, to negotiate treaties, &c., ad referendum to congress, and maintain relations with foreign powers, to declare war in case of invasion and to declare martial law in case of grave internal disorder, and to advise congress at the opening of the annual session of the progress and state of public affairs. He may be impeached before the senate for his official acts and suspended from office, or tried by the supreme tribunal for criminal offences.

The executive power of the nation is held by a president, who is elected for a four-year term by a direct vote of the electors. The president must be a native Brazilian over thirty-five years old, fully enjoying their political rights, and cannot serve consecutive terms. A vice president is elected at the same time and under the same conditions, serving as the president of the Senate ex officio, and will take over the presidency if the position becomes vacant during the last two years of the presidential term. If a vacancy occurs in the first two years, a new election must be held. The president receives a salary of 120,000 milreis and the vice president earns 36,000 milreis. The president is advised and supported by a cabinet of six ministers: foreign affairs; finance; agriculture, industry, and commerce;9 communications (Viacao) and public works;9 war; and marine. The ministers are appointed and removed by the president, do not participate in congressional sessions, and are accountable only to the president for their advisory actions. The president approves and enacts laws, has the power to veto or ignore laws and resolutions voted by Congress, and issues decrees and regulations for their implementation. A veto can be overridden by a two-thirds vote in each chamber, and allowing ten days to pass without signing a law is treated as approval, leading to its enactment by Congress. The president is responsible for various duties, including commanding the armed forces of the republic, appointing the mayor of the national capital, nominating members of the Supreme Tribunal and diplomatic representatives for Senate approval, negotiating treaties, and maintaining relations with foreign powers. The president can declare war in the event of invasion and impose martial law during serious internal disorder, and must inform Congress at the beginning of the annual session about the progress and state of public affairs. The president can be impeached by the Senate for official actions and suspended from office, or prosecuted by the Supreme Tribunal for criminal offenses.

The legislative power is vested in a national congress of two chambers, elected by direct suffrage, and convened on the 3rd of May each year. The regular annual sessions are of four months’ duration, but they may be extended to complete necessary legislation. The senate consists of sixty-three members (three from each state and the federal district) elected for a period of nine years, one-third of each delegation being renewed every three years. The senators must be not less than thirty-five years of age, and are exempt from all legal processes not previously authorized by the senate during their term of office, except in cases of arrest in flagrante delicto for a capital crime. The chamber of deputies contains 212 members, the membership being distributed among the states on a basis of one for each 70,000 of population, but with a minimum representation of four for each state. The deputies are elected by direct suffrage for the legislative session of three years, and have the same immunities from legal process as the senators. The chamber has the right of initiative in the organization of the annual budget laws and those relative to the numerical strength of the army and navy. The members of both houses receive a per diem subsidy.

The legislative power is held by a national congress with two chambers, elected by direct vote, and meets every year on May 3rd. The regular annual sessions last for four months, but they can be extended to finish important legislation. The senate has sixty-three members (three from each state and the federal district) elected for nine years, with one-third of each group being renewed every three years. Senators must be at least thirty-five years old and are protected from all legal actions not authorized by the senate during their term, except for arrests made in the act of committing a serious crime. The chamber of deputies has 212 members, with representation allocated based on one for every 70,000 people, but with a minimum of four for each state. Deputies are elected by direct vote for a three-year legislative term and enjoy the same legal protections as senators. The chamber has the authority to initiate the annual budget laws and those related to the size of the army and navy. Members of both chambers receive a per diem allowance.

The judicial system of the republic consists of a supreme federal tribunal of fifteen judges in the national capital, and a district tribunal in the capital of each state, which forms a federal judicial district. The judges are appointed for life and can be removed only by judicial sentence and impeachment. One member of the supreme tribunal holds the position of 451 solicitor-general of the republic. The judges and solicitor-general are appointed by the president with the approval of the senate, but the tribunal chooses its own presiding officers and secretaries and, nominally, is independent of executive control. The supreme tribunal has original and appellate jurisdiction, but its power to pass on the constitutionality of federal laws and executive acts seems to fall short of that of the United States Supreme Court. It has authority, however, to review the acts and laws of state governments and to decide upon their constitutionality. The district federal court has but one judge (juiz de secção) and a solicitor of the republic, and has original jurisdiction in federal causes. Each state has its own local laws and courts, independent of federal control, but subject to the review of the supreme tribunal, and with rights of appeal to that tribunal in specified cases. The federal district, which has a municipal council instead of a legislature, has a system of municipal and higher courts peculiar to itself. Limited judicial powers are exercised by chiefs of police, and by certain department commissions, or boards, of an executive character. The members of the army and navy are governed by special laws, enjoy immunities from civil process, and are subject to the jurisdiction of military courts. The civil code of the republic is based upon Roman law.

The judicial system of the republic consists of a supreme federal court with fifteen judges located in the national capital, and a district court in the capital of each state, forming a federal judicial district. The judges are appointed for life and can only be removed through a judicial ruling and impeachment. One member of the supreme court serves as the solicitor-general of the republic. The judges and solicitor-general are appointed by the president with the senate's approval, but the court selects its own presiding officers and secretaries and is, in theory, independent of executive control. The supreme court has both original and appellate jurisdiction, but its authority to rule on the constitutionality of federal laws and executive actions may not match that of the United States Supreme Court. It does have the power to review the actions and laws of state governments and decide on their constitutionality. The district federal court has one judge (juiz de secção) and a solicitor of the republic, and has original jurisdiction in federal cases. Each state has its own local laws and courts, independent of federal control, but subject to review by the supreme court, with rights of appeal to that court in certain cases. The federal district, which operates with a municipal council instead of a legislature, has its own system of municipal and higher courts. Limited judicial powers are held by police chiefs and certain executive boards or commissions. Members of the army and navy are governed by special laws, have immunities from civil processes, and are subject to military courts. The civil code of the republic is based on Roman law.

Army.—The nominal strength of the army in 1906 was 29,489, including the officers of the general and subordinate staffs and the officers and cadets of the military schools. This total represents the nominal strength of the army in times of peace. Its actual strength, however, is about 15,000 men, some of the regimental and battalion organizations being skeletons. Its organization consists of 40 battalions of infantry with one transport and one depot company, 14 regiments of cavalry of 4 squadrons each, 6 regiments of field artillery with 24 batteries and 6 battalions of heavy artillery with 24 batteries, and two battalions of engineers. Efforts to organize a national guard have been unsuccessful, although officers have been appointed and the organization perfected, on paper. The police force, however, is organized on a military footing and armed, and is available for service in case of necessity. It is credited with 20,000 men. According to law military service is obligatory, but the government has been unable to enforce it. Impressment is commonly employed to fill the ranks, and in cases of emergency the prison population is drawn upon for recruits. The president is nominally commander-in-chief of the army, but the actual command is vested in a general staff in the national capital, and in the general commanding each of the seven military districts into which the republic is divided. The most important of these districts is that of Rio Grande do Sul, where a force of 11,226 men is stationed. The principal war arsenal is in Rio de Janeiro. The rifle used by the infantry is a modified Mauser of the German 1888 model. Military instruction is given at the Eschola Militar of Rio de Janeiro. The military organization is provided with an elaborate code and systems of military courts, which culminate in a supreme military tribunal composed of 15 judges holding office for life, of which 8 are general army officers, 4 general naval officers and 3 civil judges.

Army.—The reported strength of the army in 1906 was 29,489, which included officers from both the general and subordinate staffs, as well as officers and cadets from military schools. This figure reflects the army's nominal strength during peacetime. However, its actual strength is around 15,000 men, with some regimental and battalion units being understaffed. The organization includes 40 infantry battalions, with one transport and one depot company, 14 cavalry regiments consisting of 4 squadrons each, 6 field artillery regiments with 24 batteries, 6 heavy artillery battalions with 24 batteries, and two engineer battalions. Attempts to form a national guard have not succeeded, although officers have been appointed and the structure established in theory. The police force is organized along military lines and is armed, making it available for service in emergencies. It is reported to consist of 20,000 men. According to law, military service is mandatory, but the government has struggled to enforce it. Impressment is frequently used to fill ranks, and in emergencies, inmates from prisons are recruited. The president is the nominal commander-in-chief of the army, but real command is held by a general staff in the national capital and by the generals overseeing each of the seven military districts into which the republic is divided. The most significant of these districts is Rio Grande do Sul, where a force of 11,226 men is stationed. The main military arsenal is in Rio de Janeiro. The infantry uses a modified Mauser rifle based on the German 1888 model. Military training is conducted at the Escola Militar in Rio de Janeiro. The military organization follows a detailed code and has military courts that culminate in a supreme military tribunal made up of 15 judges serving for life, including 8 general army officers, 4 general naval officers, and 3 civil judges.

Navy.—The naval strength of the republic consisted in 1906 of a collection of armoured and wooden vessels of various ages and types of construction, of which three armoured vessels (including the two designed for coast defence), four protected cruisers, five destroyers and torpedo-cruisers, and half a dozen torpedo boats represented what may be termed the effective fighting force. The loss of the armoured turret ship “Aquidaban” by a magazine explosion in the bay of Jacarepagua, near Rio de Janeiro, in 1905, had left Brazil with but one fighting vessel (the “Reachuelo”) of any importance. Many of the wooden and iron vessels listed in the Naval Annual, 1906, though obsolete and of no value whatever as fighting machines, are used for river and harbour service, and in the suppression of trifling insurrections. The Annual describes 21 vessels of various types, and mentions 23 small gunboats used for river and harbour service. Besides these there are a number of practice boats (small school-ships), transports, dispatch boats and launches. A considerable part of the armament is old, but the more modern vessels are armed with Armstrong rifled guns. The naval programme of the republic for 1905 provided for the prompt construction of 3 battleships of the largest displacement, 3 armoured cruisers, 6 destroyers, 12 torpedo boats and 3 submarine boats; and by 1909 the reorganization of the navy was far advanced. The principal naval arsenal is located at Rio de Janeiro. The government possesses dry docks at Rio de Janeiro. The naval school, which has always enjoyed a high reputation among Brazilians, is situated on the island of Enxadas in the bay of Rio de Janeiro. There are smaller arsenals at Pará, Pernambuco, São Salvador and Ladario (Matto Grosso) and a shipbuilding yard of considerable importance at the Rio de Janeiro arsenal.

Navy.—In 1906, the naval strength of the republic was made up of a mix of armored and wooden ships of various ages and construction types. This included three armored vessels (two of which were meant for coastal defense), four protected cruisers, five destroyers and torpedo cruisers, and around six torpedo boats, which can be considered the effective fighting force. The explosion of the armored turret ship “Aquidaban” in the bay of Jacarepagua, near Rio de Janeiro, in 1905 left Brazil with only one significant fighting vessel, the “Reachuelo.” Many of the wooden and iron ships listed in the Naval Annual, 1906, while outdated and useless as fighting machines, were still in service for river and harbor duties, and for putting down minor uprisings. The Annual lists 21 vessels of different types and mentions 23 small gunboats used for river and harbor service. Additionally, there were several practice boats (small training ships), transports, dispatch boats, and launches. Much of the armament is old, but the more modern ships are equipped with Armstrong rifled guns. The naval program for 1905 called for the immediate construction of 3 battleships of the largest size, 3 armored cruisers, 6 destroyers, 12 torpedo boats, and 3 submarines; by 1909, the reorganization of the navy was well underway. The main naval arsenal is located in Rio de Janeiro, which also has dry docks. The naval school, known for its strong reputation among Brazilians, is on the island of Enxadas in the bay of Rio de Janeiro. There are smaller arsenals in Pará, Pernambuco, São Salvador, and Ladario (Mato Grosso) along with a significant shipbuilding yard at the Rio de Janeiro arsenal.

Education.—Education is in a backward condition, and it is estimated that 80% of the population can neither read nor write. The lowest rate of illiteracy is to be found in the southern half of the republic. Public instruction, is, by constitutional provision, under secular control, but religious denominations are permitted to have their own schools. Primary instruction is free but not compulsory, and the schools are supported and supervised by the states. An incomplete return in 1891 gave 8793 schools and 376,399 pupils. Secondary and higher education are under both federal and state control, the former being represented by lyceums in the state capitals, and by such institutions as the Gymnasio Nacional (formerly Collegio Dom Pedro II.) in Rio de Janeiro. Many of the states also maintain normal schools of an inferior type, that of São Paulo being the best and most modern of the number. Higher, or superior, instruction is confined almost exclusively to professional schools— the medical schools of Rio de Janeiro and Bahia, the law schools of São Paulo and Pernambuco, the polytechnic of Rio de Janeiro, and the school of mines of Ouro Preto. There are many private schools in all the large cities, from the primary schools maintained by the church and various corporations and religious associations to schools of secondary and collegiate grades, such as the Protestant mission schools of Petropolis, Piracicaba, Juiz de Fóra, São Paulo and Paraná, the Lyceu de Artes e Ofiicios (night school) of Rio de Janeiro, and the Mackenzie College of São Paulo. Perhaps the best educational work in Brazil is done in these private schools. In addition to these there are a number of seminaries for the education of priests, where special attention is given to the classics and belles-lettres.

Education.—Education is in a poor state, with around 80% of the population unable to read or write. The lowest illiteracy rates are in the southern part of the country. Public education is, by law, under secular control, but religious groups can have their own schools. Primary education is free but not mandatory, and the schools are funded and overseen by the states. An incomplete report from 1891 showed there were 8,793 schools with 376,399 students. Secondary and higher education falls under both federal and state control, with secondary schools represented by lyceums in state capitals and institutions like the Gymnasio Nacional (formerly Collegio Dom Pedro II.) in Rio de Janeiro. Many states also have lower-quality normal schools, with São Paulo having the best and most modern. Higher education mainly occurs in professional schools, including medical schools in Rio de Janeiro and Bahia, law schools in São Paulo and Pernambuco, the polytechnic school in Rio de Janeiro, and the mining school in Ouro Preto. There are many private schools in major cities, ranging from church-run primary schools to secondary and college-level institutions, such as the Protestant mission schools in Petropolis, Piracicaba, Juiz de Fora, São Paulo, and Paraná, the Lyceu de Artes e Ofiícios (night school) in Rio de Janeiro, and Mackenzie College in São Paulo. The best educational work in Brazil is often done in these private schools. Additionally, there are several seminaries focused on training priests, with a special emphasis on classical studies and literature.

Religion.—The revolution of 1889 and the constitution adopted in 1891 not only effected a radical change in the form of government, but also brought about the separation of church and state. Before that time the Roman Catholic Church had been recognized and supported by the state. Not only are the national and state governments forbidden by the constitution to establish or subsidize religious worship, but its freedom is guaranteed by a prohibition against placing obstructions upon its exercise. The relations of the state with the disestablished church since 1889 have been somewhat anomalous, the government having decided to continue during their lives the stipends of the church functionaries at the time of disestablishment. The census of 1890 divided the population into 14,179,615 Roman Catholics, 143,743 Protestants, 3300 of all other faiths, 7257 of no religious profession, and 600,000 unchristianized Indians. The increase of population through immigration is overwhelmingly Catholic, and the nation must, therefore, continue Roman Catholic whether the church is subsidized by the state or not. The moral character of churchmen in Brazil has been severely criticized by many observers, and the ease with which disestablishment was effected is probably largely due to their failings. The church had exercised a preponderating influence in all matters relating to education and the social life of the people, and it was felt that no sweeping reforms could be secured until its domination had been broken. The immediate results of disestablishment were civil marriage, the civil registry of births and deaths, and the secularization of cemeteries; but the church retains its influence over all loyal churchmen through the confessional, the last rites 452 of the church, and their sentiment against the profanation of holy ground. Formerly Brazil constituted an ecclesiastical province under the metropolitan jurisdiction of an archbishop residing at Bahia, with 11 suffragan bishops, 12 vicars-general and about 2000 curates. In 1892 the diocese of Rio de Janeiro was made an archbishopric, and four new dioceses were created. Three more have been added since, making twenty dioceses in all. In 1905 the archbishop of Rio de Janeiro was made a cardinal. The church has eleven seminaries for the education of priests, and maintains a large number of private schools, especially for girls, which are patronized by the better classes. The church likewise exercises a far-reaching influence over the people through the beneficent work of its lay orders, and through the hospitals and asylums under its control in every part of the country. A Misericordia hospital is to be found in almost every town of importance, and recolhimentos for orphan girls in all the large cities. In no country have these charities received more generous support than in Brazil. The Protestant contingent consists of a number of small congregations scattered throughout the country, a few Portuguese Protestants from the Azores, a part of the German colonists settled in the central and southern states, and a large percentage of the North Europeans and Americans temporarily resident in Brazil. The Positivists are few in number, but their congregations are made up of educated and influential people.

Religion.—The revolution of 1889 and the constitution adopted in 1891 not only brought a significant change in the government structure, but also established the separation of church and state. Prior to this, the Roman Catholic Church had been recognized and supported by the state. The constitution prohibits both national and state governments from establishing or funding religious worship, while ensuring freedom of religion by preventing any restrictions on its practice. Since 1889, the relationship between the state and the disestablished church has been somewhat unusual, with the government deciding to continue paying the salaries of church officials for the rest of their lives following disestablishment. According to the 1890 census, the population included 14,179,615 Roman Catholics, 143,743 Protestants, 3,300 from other faiths, 7,257 with no religious affiliation, and 600,000 non-Christianized Indigenous people. The population growth due to immigration is predominantly Catholic, meaning the nation will likely remain Roman Catholic, regardless of state funding for the church. The moral character of church leaders in Brazil has faced serious criticism from various observers, and the relatively smooth process of disestablishment may be largely attributed to their shortcomings. The church had a dominant influence over education and social life, and it was believed that meaningful reforms would not happen until its power was diminished. The immediate outcomes of disestablishment included civil marriage, civil registration of births and deaths, and the secularization of cemeteries; however, the church still maintains influence over faithful members through confessions, last rites, and their sentiments against disrespecting sacred ground. In the past, Brazil was part of an ecclesiastical province under the authority of an archbishop in Bahia, with 11 assistant bishops, 12 vicar-generals, and about 2,000 curates. In 1892, the diocese of Rio de Janeiro became an archbishopric, and four new dioceses were established. Three more have been added since, totaling twenty dioceses. In 1905, the archbishop of Rio de Janeiro was elevated to cardinal. The church operates eleven seminaries for training priests and manages a large number of private schools, especially for girls, which are attended by higher social classes. Additionally, the church has a significant impact on the community through its charitable work and the hospitals and shelters it runs across the country. A Misericordia hospital can be found in nearly every significant town, and there are facilities for orphaned girls in major cities. Few countries have seen such generous support for these charitable efforts as Brazil. The Protestant community is made up of small congregations spread throughout the country, a handful of Portuguese Protestants from the Azores, some German settlers in the central and southern states, and a large number of North Europeans and Americans living temporarily in Brazil. The Positivists are few in number, but their congregations consist of educated and influential individuals.

Art, Science and Literature.—The Brazilian people have the natural taste for art, music and literature so common among the Latin nations of the Old World. The emperor Dom Pedro II. did much to encourage these pursuits, and many promising young men received their education in Europe at his personal expense. Still earlier in the century (1815) the regent Dom John VI. brought out a number of French artists to educate his subjects in the fine arts, and the Escola Real de Sciencias, Artes e Officios was founded in the following year. From this beginning resulted the Academia de Bellas Artes of a later date, to which was added a conservatory of music in 1841. The institution is now called the Escola Nacional de Bellas Artes. Free instruction in the fine arts has been given in this school. The higher results of artistic training, however, are less marked than a widespread dilettantism. The Brazilian composer Carlos Gomes (1839-1896) is the best known of those who have adopted music as a profession, his opera Il Guarani having been produced at most of the European capitals. The most prominent among Brazilian painters is Pedro Americo, and in sculpture Rodolpho Bernardelli has done good work. In science Brazil has accomplished very little, although many eminent foreign naturalists have spent years of study within her borders. João Barbosa Rodrigues has done some good work in botany, especially in the study of the palms of the Amazon, and João Baptista de Lacerda has made important biological investigations at the national museum of Rio de Janeiro. There are several scientific societies and institutions in the country, but they rarely undertake original work. The most active are the geographical societies, but very little has been done in the direction of scientific exploration. Some interesting results have been obtained from the boundary surveys, from Dr E. Cruls’s exploration of a section of the Goyaz plateau in 1892 in search of a site for the future capital of the republic, and from some of the river and railway surveys. In 1875 a geological commission was organized under the direction of Professor Charles Frederick Hartt, but it was disbanded two years later. In 1906 Congress resolved to undertake a national geological survey under the direction of Mr Orville A. Derby, one of Professor Hartt’s assistants. The coal resources of the southern states were investigated in 1904, under the auspices of the national government, by Dr J.C. White, of the U.S. Geological Survey, who found strata of fairly good coal at depths of 100 to 200 ft. extending from Rio Grande do Sul north to São Paulo. The more important contributions to our present knowledge of Brazil, however, have been obtained through the labours of foreign naturalists. Beginning with the German mineralogist W.L. von Eschwege, who spent nineteen years in Brazil (1809-1828), the list includes A. de Saint-Hilaire (1816-1820 and 1830), J.B. von Spix and C.F. von Martins (1817-1820), Prince Max zu Neuwied (1815-1817), P.W. Lund (1827-1830, and 1830 to 1880, the year of his death), George Gardner (1836-1841), A.R. Wallace (1848-1852), H.W. Bates (1848-1859), Hermann Burmeister (1850-1852), Louis Agassiz (1865-1866), Charles Frederick Hartt (1865-1866, 1872 and 1875-1878) and Karl von den Steinen (1884-1885 and 1887-1888). These explorations cover every branch of natural science and resulted in publications of inestimable scientific value. There should also be mentioned the monumental work of C.F.P. von Martius on the Flora Braziliensis, and the explorations of Agassiz and Lund. Among other scientists of a later date who have published important works on Brazil are the American geologists O.A. Derby and J.C. Branner, the Swiss naturalist E.A. Goeldi, the German botanist J. Huber, the German ethnologist H. von Ihring, and’the German geographer Fried. Katzer. The Instituto Historico e Geographico Brazileiro, though devoted chiefly to historical research, has rendered noteworthy service in its encouragement of geographical exploration and by its publication of various scientific memoirs. The Museu Nacional at Rio de Janeiro, which has occupied the imperial palace of São Christovão since the overthrow of the monarchy, contains large collections of much scientific value, but defective organization and apathetic direction have rendered them of comparatively slight service. The Observatorio Nacional at Rio de Janeiro is another prominent public institution. The botanical gardens of Brazil are developing into permanent exhibitions of the flora of the regions in which they are located. That of Rio de Janeiro is widely celebrated for its avenues of royal palms, but it has also rendered an important service to the country in the dissemination of exotic plants.

Art, Science and Literature.—The Brazilian people have a natural appreciation for art, music, and literature, much like other Latin nations. Emperor Dom Pedro II did a lot to promote these fields, financing the education of many talented young men in Europe. Earlier in the century, in 1815, Regent Dom John VI brought several French artists to teach his people about the fine arts, and the Escola Real de Sciencias, Artes e Officios was established the following year. This led to the later formation of the Academia de Bellas Artes, which added a music conservatory in 1841. Today, it is known as the Escola Nacional de Bellas Artes. The school offers free instruction in the fine arts, but the outcomes of artistic training are overshadowed by a widespread culture of amateurism. The most recognized Brazilian composer is Carlos Gomes (1839-1896), whose opera Il Guarani was performed in many European capitals. Among Brazilian painters, Pedro Americo stands out, and in sculpture, Rodolpho Bernardelli has produced notable works. In science, Brazil has seen limited achievements, even though many distinguished foreign naturalists have conducted studies here. João Barbosa Rodrigues contributed significantly to botany, especially in researching Amazonian palms, while João Baptista de Lacerda conducted important biological studies at the national museum in Rio de Janeiro. Several scientific societies and institutions exist in the country, but they rarely engage in original research. The most active are geographical societies, though little has been done toward scientific exploration. Some interesting findings have come from boundary surveys, Dr. E. Cruls’s 1892 exploration of the Goyaz plateau for a future capital site, and various river and railway surveys. A geological commission launched in 1875 under Professor Charles Frederick Hartt was disbanded two years later. In 1906, Congress decided to initiate a national geological survey led by Mr. Orville A. Derby, one of Hartt’s assistants. In 1904, Dr. J.C. White from the U.S. Geological Survey examined the coal resources in the southern states, discovering good coal deposits at depths of 100 to 200 ft. extending from Rio Grande do Sul to São Paulo. However, the most significant contributions to our current understanding of Brazil have come from foreign naturalists. This began with German mineralogist W.L. von Eschwege, who spent nineteen years in Brazil (1809-1828), and includes A. de Saint-Hilaire (1816-1820 and 1830), J.B. von Spix and C.F. von Martins (1817-1820), Prince Max zu Neuwied (1815-1817), P.W. Lund (1827-1830, and 1830 to 1880, the year of his death), George Gardner (1836-1841), A.R. Wallace (1848-1852), H.W. Bates (1848-1859), Hermann Burmeister (1850-1852), Louis Agassiz (1865-1866), Charles Frederick Hartt (1865-1866, 1872 and 1875-1878), and Karl von den Steinen (1884-1885 and 1887-1888). These explorations spanned various branches of natural science and resulted in publications of immense scientific value. Also noteworthy is the extensive work of C.F.P. von Martius on the Flora Braziliensis, along with the explorations conducted by Agassiz and Lund. Later scientists who have published significant works on Brazil include American geologists O.A. Derby and J.C. Branner, Swiss naturalist E.A. Goeldi, German botanist J. Huber, German ethnologist H. von Ihring, and German geographer Fried. Katzer. The Instituto Historico e Geographico Brazileiro, primarily focused on historical research, has also contributed to geographical exploration and published various scientific memoirs. The Museu Nacional in Rio de Janeiro, housed in the imperial palace of São Christovão since the monarchy's fall, contains extensive and valuable scientific collections, but lack of organization and poor leadership have limited their practical usefulness. The Observatorio Nacional in Rio de Janeiro is another major public institution. Brazil's botanical gardens are evolving into permanent showcases of local flora. The garden in Rio de Janeiro is famous for its royal palm avenues and has also played an important role in spreading exotic plants throughout the country.

Brazilian literature has been seriously prejudiced by partisan politics and dilettantism. The colonial period was one of strict repression, the intellectual life of the people being jealously supervised by the church to protect itself against heresy, and their progress being restricted by the Portuguese crown to protect its monopoly of the natural resources of the country. The arrival of Dom John VI. in 1808 broke down some of these restrictions, and the first year of his residence in Rio de Janeiro saw the establishment of the first printing press in Brazil and the publication of an official gazette. There was no freedom of the press, however, until 1821, when the abolition of the censorship and the constitutional struggle in Portugal gave rise to a political discussion that marked the opening of a new era in the development of the nation, and aroused an intellectual activity that has been highly productive in journalistic and polemical writings. In no country, perhaps, has the press exercised a more direct and powerful influence upon government than in Brazil, and in no other country can there be found so high a percentage of journalists in official life. Some of the political writers have played an important part in moulding public opinion on certain questions, as in the case of A.C. Tavares Bastos, whose Cartas do Solitario were highly instrumental in causing the Amazon to be thrown open to the world’s commerce and also in preparing the way for the abolition of slavery; and in that of Joaquim Saldanha Marinho, whose discussions in 1874-1876 of the relations between church and state prepared the way for their separation. The personal element is conspicuous in the Brazilian journalism, and for a considerable period of its history libellous attacks on persons, signed by professional sponsors, popularly called testas de ferro (iron heads), were admitted at so much a line in the best newspapers.

Brazilian literature has been significantly impacted by political bias and amateurism. During the colonial period, there was strict repression, with the church closely monitoring the intellectual life of the people to guard against heresy, while the Portuguese crown limited progress to maintain its control over the country’s natural resources. The arrival of Dom John VI in 1808 lifted some of these restrictions, and his first year in Rio de Janeiro saw the establishment of Brazil's first printing press and the publication of an official newspaper. However, freedom of the press didn’t come until 1821, when the end of censorship and the constitutional conflict in Portugal sparked political debates that marked the beginning of a new era for the nation, leading to a surge in intellectual activity that produced a wealth of journalistic and argumentative writings. In no other country, perhaps, has the press had such a direct and powerful influence on government as in Brazil, and there’s no other country where such a high percentage of journalists are involved in official positions. Some political writers have played a crucial role in shaping public opinion on specific issues, such as A.C. Tavares Bastos, whose Cartas do Solitario was instrumental in opening up the Amazon to global trade and paving the way for the abolition of slavery; and Joaquim Saldanha Marinho, whose discussions from 1874 to 1876 about the relationship between church and state helped set the stage for their separation. The personal element is prominent in Brazilian journalism, and for a significant time in its history, libelous attacks on individuals, penned by professional proxies, popularly known as testas de ferro (iron heads), were accepted at a set rate per line in the leading newspapers.

The singular adaptability of the Portuguese language to poetical expression, coupled with the imaginative temperament of the people, has led to an unusual production and appreciation of poetry. The percentage of educated men who have written little volumes of lyrics is surprisingly large, and this may be accounted for by the old Portuguese custom of reciting poetry with musical accompaniment. The most popular of the Brazilian poets are Thomaz Antonio Gonzaga, Antonio Gonçalves Dias and Bernardo Guimarães. Among the dramatists and novelists 453 may be mentioned Joaquim Manoel de Macedo, José Martiniano de Alencar, Bernardo Guimarães, A. de Escrangnolle Taunay and J.M. Machado de Assis. José M. de Alencar is usually described as the greatest of Brazilian novelists. The most popular of his romances are Iracema and O Guarany. In historical literature Brazil has produced one writer of high standing—Francisco Adolpho Varnhagen (Visconde de Porto Seguro), whose Historia Geral do Brazil is a standard authority on that subject. The two English authorities, Robert Southey’s History of Brazil, covering the colonial period, and John Armitage’s History of Brazil, covering the period between the arrival of the Braganza family (1808) and the abdication of Dom Pedro I. (1831), have been translated into Portuguese. Another Brazilian historian of recognized merit is João Manoel Pereira da Silva, whose historical writings cover the first years of the empire, from its foundation to 1840. Among the later writers João Capistrano de Abren has produced some short historical studies of great merit. In the field of philosophic speculation, Auguste Comte has had many disciples in Brazil.

The unique adaptability of the Portuguese language for poetry, combined with the imaginative spirit of its people, has resulted in a remarkable production and appreciation of poetry. A surprisingly high percentage of educated individuals have written small volumes of lyrics, which can be attributed to the traditional Portuguese practice of reciting poetry with musical accompaniment. The most well-known Brazilian poets include Thomaz Antonio Gonzaga, Antonio Gonçalves Dias, and Bernardo Guimarães. Among the dramatists and novelists, we can mention Joaquim Manoel de Macedo, José Martiniano de Alencar, Bernardo Guimarães, A. de Escragnolle Taunay, and J.M. Machado de Assis. José M. de Alencar is often regarded as the greatest Brazilian novelist, with his most popular works being Iracema and O Guarany. In historical literature, Brazil has produced one highly regarded writer—Francisco Adolpho Varnhagen (Visconde de Porto Seguro), whose Historia Geral do Brazil is a recognized authority on the subject. Two English authorities, Robert Southey’s History of Brazil, which covers the colonial period, and John Armitage’s History of Brazil, which spans from the arrival of the Braganza family (1808) to the abdication of Dom Pedro I (1831), have both been translated into Portuguese. Another Brazilian historian of notable merit is João Manoel Pereira da Silva, who wrote about the early years of the empire, from its founding to 1840. Among later writers, João Capistrano de Abren has produced some excellent short historical studies. In the realm of philosophical thought, Auguste Comte has had many followers in Brazil.

Finance.—The national revenue is derived largely from the duties on imports, the duties on exports having been surrendered to the states when the republic was organized. Other sources of revenue are stamp taxes on business transactions, domestic consumption taxes (usually payable in stamps) on manufactured tobaccos, beverages, boots and shoes, textiles, matches, salt, preserved foods, hats, pharmaceutical preparations, perfumeries, candles, vinegar, walking sticks and playing cards, and taxes on lotteries, passenger tickets, salaries and dividends of joint-stock companies. Formerly import duties were payable in currency, but in 1899 it was decided to collect 10% of them in gold to provide the government with specie for its foreign remittances. The revenues and expenditures have since then been calculated in gold and currency together, to the complete mystification of the average citizen, and the gold percentage of the duties on imports has been increased to 35 and 50% (in 1907), the higher rate to apply to specified articles and rule when exchange on London is above 14 pence per milreis, and the lower when it is below. The service of the national debt absorbs a very large part of the expenditure, about 45% of the estimates for 1907 being assigned to the department of finance. The department of industry, communications and public works takes the next highest proportion, but about half its expenditures are met by special taxes, as in the case of port works and railway inspection, and by the revenues of the state railways, telegraph lines and post office. The depreciation and unstable character of the paper currency render it difficult to give a clear statement of receipts and expenditures for a term of years, the sterling equivalents often showing a decrease, through a fall in the value of the milreis, where there has been an actual increase in currency returns. This was most noticeable between 1889 and 1898, when exchange, which represents the value of the milreis, fell from a maximum of 27¾ pence (27d. being the par value of the milreis) to a minimum of 558 pence. Since 1898 there has been an upward movement of exchange, the average rate for 1905 having been very nearly 16 pence. In this period the increase in the sterling equivalents would be proportionately greater than that of the currency values. The gold and currency receipts and expenditures for the six years 1900 to 1905, inclusive, according to official returns, were as follows:—

Finance.—The national revenue mainly comes from import duties, since export duties were given up by the states when the republic was formed. Other revenue sources include stamp taxes on business transactions and domestic consumption taxes (usually paid in stamps) for items like manufactured tobacco, beverages, boots and shoes, textiles, matches, salt, preserved foods, hats, pharmaceutical products, perfumes, candles, vinegar, walking sticks, and playing cards, as well as taxes on lotteries, passenger tickets, salaries, and dividends of joint-stock companies. In the past, import duties were paid in cash, but in 1899, it was decided that 10% of them should be collected in gold to provide the government with actual currency for foreign remittances. Since then, revenues and expenditures have been estimated in both gold and currency, which has completely confused the average citizen. The gold portion of import duties has been increased to 35% and 50% (in 1907), with the higher rate applying to specified items when the exchange rate on London is above 14 pence per milreis, and the lower rate when it is below. A significant portion of expenditures, about 45% of the 1907 budget, goes toward servicing the national debt. The department of industry, communications, and public works receives the next highest allocation, but about half of its spending is covered by special taxes, such as those for port construction and railway inspections, as well as revenues from state railways, telegraph lines, and the post office. The depreciation and instability of paper currency make it challenging to provide a clear overview of receipts and expenditures over several years, as the sterling equivalents often show a decrease due to the falling value of the milreis, even when there has been an actual increase in currency returns. This was most evident between 1889 and 1898, when the exchange rate for the milreis fell from a high of 27¾ pence (with 27p being the par value of the milreis) to a low of 558 pence. Since 1898, there has been a rising trend in exchange rates, with the average for 1905 being almost 16 pence. During this period, the increase in sterling equivalents would have been proportionately greater than the increase in currency values. The gold and currency receipts and expenditures for the six years from 1900 to 1905, inclusive, according to official records, were as follows:—

Year. Average Rate
of Exchange.
Revenue. Expenditure.
Pence. Gold
Milreis.
Currency
Milreis.
Gold
Milreis.
Currency
Milreis.
1900  9.50 49,955,522 263,687,253 41,892,150 372,753,986
1901 11.38 44,041,302 239,284,702 40,493,241 261,629,212
1902 11.97 42,904,844 266,584,912 34,574,643 236,458,862
1903 12   45,121,844 327,370,063 48,324,642 291,198,960
1904 12.28 50,566,572 342,782,191 48,476,413 352,292,147
1905 15.89 64,207,004 243,355,396 51,606,272 265,699,281

Reducing gold to a currency basis at 15d. per milreis (the official valuation adopted in 1906), the budget for 1907 provided for a revenue of 353,590,593 milreis and an expenditure of 409,482,284 milreis, showing a deficit of 55,891,691 milreis. These deficits were common enough under the monarchy, but they have become still more prominent under the republic. According to the “Retrospecto Commercial” for 1906 of the Jornal do Commercio (Rio de Janeiro, March 5, 1907), the aggregate deficits for the eleven years 1891 to 1904 were 692,000,000 milreis, or, say, £43,250,000.

Reducing gold to a currency value of 15d. per milreis (the official valuation established in 1906), the budget for 1907 projected a revenue of 353,590,593 milreis and an expenditure of 409,482,284 milreis, resulting in a deficit of 55,891,691 milreis. These deficits were quite common during the monarchy, but they have become even more pronounced under the republic. According to the “Retrospecto Commercial” from 1906 in the Jornal do Commercio (Rio de Janeiro, March 5, 1907), the total deficits for the eleven years from 1891 to 1904 amounted to 692,000,000 milreis, or roughly £43,250,000.

The natural result of such a regime is increasing indebtedness. In 1888, a year before the republic was proclaimed, the internal and external national debts amounted to £74,000,000 sterling, with the currency at par. Ten years later, when the currency had fallen to 558 pence per milreis, the government found itself unable to meet the interest obligations on its debt and railway guarantees, and an arrangement was made with its creditors in London for the issue of a 5% funding loan to an amount not to exceed £10,000,000, and the suspension of all amortization for thirteen years. On the other hand the government agreed to withdraw currency, which had reached a total of 788,364,614 ½-milreis, pari passu with the issue of the loan, the milreis being computed at 18 pence. The purpose of this condition was in order to improve the value of the paper milreis in order to increase the specie value of the revenues. The scheme came into operation in June 1898, and not only was a complete suspension of payments avoided but the financial situation was greatly improved. The government even withdrew more of its currency issues than required by the agreement, and the value of the milreis steadily improved. At the same time the government carried out the forced conversion of the national loans into lower interest-bearing issues, which greatly reduced the annual interest charges. These measures would have put the financial affairs of the nation on a solid footing in a very few years had the government been able to keep its expenditure within its income. The naval revolt of 1893-1894, however, had aroused the spirit of militarism in the ruling classes, and the effort to perfect the organization and equipment of the army, strengthen the fortifications of Rio de Janeiro, and increase the navy, have kept expenditures in excess of the revenues. The purchase of guaranteed railways owned by foreign companies likewise added largely to the bonded indebtedness, though the onus was in existence in another form. The result of these measures was a large addition to the public debt, which on 31st December 1906 was approximately as follows (apolices being the name given to bonds inscribed to the holder):—

The obvious outcome of such a situation is a growing amount of debt. In 1888, a year before the republic was established, the internal and external national debts totaled £74,000,000 sterling, with the currency at par. Ten years later, when the currency had dropped to 558 pence per milreis, the government struggled to meet its interest payments on debt and railway guarantees. An agreement was reached with creditors in London for the issuance of a 5% funding loan not exceeding £10,000,000, along with a suspension of all amortization for thirteen years. In return, the government agreed to withdraw currency that had reached a total of 788,364,614 ½-milreis, pari passu with the loan issuance, based on a value of the milreis at 18 pence. This condition aimed to improve the value of the paper milreis to enhance the actual value of revenues. The plan took effect in June 1898, avoiding a complete suspension of payments and significantly improving the financial situation. The government even withdrew more currency than the agreement required, leading to a steady increase in the milreis's value. Concurrently, the government converted national loans into lower interest-bearing forms, which greatly reduced annual interest costs. These actions would have put the nation's financial situation on solid ground within a few years if the government had managed to keep its spending within its income. However, the naval revolt of 1893-1894 sparked a militaristic attitude among the ruling classes, and their efforts to improve the army's organization and equipment, strengthen the fortifications in Rio de Janeiro, and expand the navy kept expenses above revenues. Additionally, purchasing guaranteed railways owned by foreign companies significantly increased the national debt, even though it existed in another form. As a result, the public debt grew considerably, which on December 31, 1906, was approximately as follows (apolices being the term used for bonds assigned to the holder):—

External debt:   £  s. d.
 Loans of 1883, 1888 and 1889. 26,478,500
 Oestede Minas R.R. loan  3,388,100
 Loan of 1898  7,331,600
 Funding loan of 1898  8,613,717 9 9
 Railway rescission loan of 1901 15,467,015 16 1
 Port works loan of 1903  8,500,000
  ———————
  £69,778,933 5 10
  ==============
Internal debt, funded: Milreis 
 5 % apolices, Law of 1827 483,546,600
 4½% ”    ” 1879 20,548,000
 6  % ”    ” 1897 37,082,000
 5  % ”    ” 1903 17,300,000
  —————
Total, funded 558,476,600
(at 15d. £34,904,787) =========
Internal debt, not funded: Milreis 
 Paper money 664,792,960
 Savings bank and other deposits:  
  In paper 246,812,407
  In gold, 19,053,861 r (say) 34,296,950
Floating indebtedness (a/cs current, bills, &c.) ?  
  —————
Total, not funded, approx. 945,902,317
(at 15d. £59,118,895 stg.) =========
Approximate total indebtedness £163,802,675

In addition to these, the government was still responsible for interest guarantees on fourteen railways, or sections of existing lines, with an aggregate capital of about £4,900,000 held in Europe and 12,055,440 milreis held in Brazil, on which the national treasury paid in interest £191,324 and 1,398,493 milreis.

In addition to these, the government was still responsible for interest guarantees on fourteen railways, or sections of existing lines, with a total capital of about £4,900,000 held in Europe and 12,055,440 milreis held in Brazil, on which the national treasury paid £191,324 in interest and 1,398,493 milreis.

The paper currency of Brazil consists of both treasury issues and bank-notes, the latter issued under government supervision. Its fluctuations in value have been not only a serious inconvenience in commercial transactions, but also the cause of heavy loss to the people. Under the provisions of the funding loan of 1898 a scheme for the withdrawal of the paper money was carried into effect, and by the end of December 1906 the amount in circulation had been reduced from 788,364,614 ½-milreis (the outstanding circulation 31st August 1898) to 664,792,960 ½-milreis. Two funds were created for the redemption and guarantee of paper issues, the latter receiving 5% of the import duties payable in gold. Up to 1906 the Caixa da Amortisação (redemption bureau), which has charge of the service of the internal funded debt, superintended the redemption of the currency, but in that year (December 6, 1906) a Caixa de Conversão (conversion bureau) was created for this special service. It is modelled after the Argentine Conversion office, and is authorized to issue notes to bearer against deposits of gold at the rate of 15 pence per milreis although exchange was above 17d. when the scheme was proposed. The notes are to be redeemable in gold at 454 sight, the Caixa de Conversão to keep the gold paid in for that express purpose. The coffee producers of São Paulo and other states found that the appreciation in value of the milreis was reducing their profits, and they advocated this measure (at first with a valuation of 12d.) to check the upward movement in exchange. Metallic money is limited to nickel and bronze coins, but in 1906 the government was authorized to purchase bar silver for the coinage of pieces of the denomination of two milreis, one milreis and 500 reis (½-milreis). Gold is the nominal standard of value, the monetary unit being the gold milreis worth 2s. 2½d. at par. The 10-milreis gold piece weighs 8.9648 grammes, 916 fine, and contains 8.2178 grammes of pure gold. There is no gold in circulation, however, and gold duties are paid with gold cheques purchased at certain banks with paper money. The banking facilities of the republic have undergone many changes under the new regime. A fruitful cause of disaster has been the practice of issuing agricultural and industrial loans under government authorization. Commercial business at the principal ports is largely transacted through foreign banks, of which there are a large number.

The paper currency of Brazil includes both treasury issues and banknotes, the latter being issued under government supervision. Its value has fluctuated significantly, causing serious inconvenience in commercial transactions and resulting in substantial losses for the public. Following the funding loan of 1898, a plan was implemented to withdraw paper money, and by the end of December 1906, the circulating amount had decreased from 788,364,614 ½-milreis (the outstanding circulation on August 31, 1898) to 664,792,960 ½-milreis. Two funds were established for the redemption and assurance of paper issues, with the latter receiving 5% of the import duties paid in gold. Up to 1906, the Caixa da Amortisação (redemption bureau), responsible for managing the internal funded debt, oversaw the currency redemption. However, in that year (December 6, 1906), a Caixa de Conversão (conversion bureau) was created for this specific service. It is modeled after the Argentine Conversion office and is authorized to issue bearer notes against deposits of gold at a rate of 15 pence per milreis, even though the exchange rate was above 17d. when the plan was proposed. The notes are to be redeemable in gold at 454 upon request, with the Caixa de Conversão holding the gold paid in for that purpose. Coffee producers in São Paulo and other states noticed that the rising value of the milreis was cutting into their profits and pushed for this measure (initially valued at 12d.) to curb the increase in exchange rates. Metallic currency consists only of nickel and bronze coins, but in 1906 the government was authorized to purchase bar silver for coining pieces worth two milreis, one milreis, and 500 reis (½-milreis). Gold serves as the nominal standard of value, with the monetary unit being the gold milreis worth 2s. 2½d. at par. The 10-milreis gold coin weighs 8.9648 grams, is 916 fine, and contains 8.2178 grams of pure gold. However, there is no gold in circulation, and gold duties are settled with gold checks purchased at certain banks using paper money. The banking system in the republic has undergone many changes under the new government. A significant cause of crisis has been the practice of issuing agricultural and industrial loans under government approval. Most commercial transactions at the main ports are conducted through foreign banks, of which there are many.

In addition to the indebtedness of the national government, the individual states have also incurred funded debts of their own. The aggregate of these debts in 1904 was £20,199,440, and the several loans made during the next two years, including those of the municipalities of Rio de Janeiro, Santos, Bahia and Manáos, add fully two and a half millions more to the total.

In addition to the national government's debt, the individual states have also taken on their own debts. In 1904, the total of these debts was £20,199,440, and the loans taken out over the next two years, including those from the municipalities of Rio de Janeiro, Santos, Bahia, and Manaus, added another two and a half million to the total.

(A. J. L.)

History

History

Brazil was discovered in February 1499 (o.s.) by Vicente Yañez Pinzon, a companion of Columbus. He descried the land near Cape St Augustine, and sailed along the coast as far as the river Amazon, whence he proceeded to the The Portuguese in Brazil. mouth of the Orinoco. He made no settlement, but took possession of the country in the name of the Spanish government, and carried home, as specimens of its natural productions, some drugs, gems and Brazil-wood. Next year the Portuguese commander, Pedro Alvares Cabral, appointed by his monarch to follow the course of Vasco da Gama in the East, was driven by adverse winds so far from his track, that he reached the Brazilian coast, April 24, and anchored in Porto Seguro (16° S. lat.) on Good Friday. On Easter day an altar was erected, mass celebrated in presence of the natives, the country declared an apanage of Portugal, and a stone cross erected in commemoration of the event. Cabral despatched a small vessel to Lisbon to announce his discovery, and, without forming any settlement, proceeded to India on the 3rd of May. On the arrival of the news in Portugal, Emanuel invited Amerigo Vespucci to enter his service, and despatched him with three vessels to explore the country. The navigator’s first voyage was unsuccessful; but, according to his own account, in a second he discovered a safe port, to which he gave the name of All-Saints and where he erected a small fort. Vespucci’s narrative is, however, suspected of being apocryphal (see Vespucci, Amerigo).

Brazil was discovered in February 1499 (old style) by Vicente Yañez Pinzon, a companion of Columbus. He spotted the land near Cape St. Augustine and sailed along the coast as far as the Amazon River, then continued to the mouth of the Orinoco. He didn’t establish any settlement but claimed the territory in the name of the Spanish government and brought back some samples of its natural resources, including drugs, gems, and Brazilwood. The following year, the Portuguese commander Pedro Alvares Cabral, who had been assigned by his king to follow Vasco da Gama’s route to the East, was blown off course by bad weather and reached the Brazilian coast on April 24, anchoring in Porto Seguro (16° S. lat.) on Good Friday. On Easter Sunday, an altar was set up, mass was celebrated in front of the natives, the territory was declared a possession of Portugal, and a stone cross was erected to commemorate the event. Cabral sent a small ship back to Lisbon to report his discovery, and without making any settlement, he continued his journey to India on May 3. When the news arrived in Portugal, King Emanuel invited Amerigo Vespucci to join his service and sent him with three ships to explore the area. Vespucci’s first voyage didn’t go well, but he claimed that on his second trip, he found a safe port which he named All-Saints, where he built a small fort. However, Vespucci’s account is considered suspect (see Vespucci, Amerigo).

The poor and barbarous tribes of Brazil, and their country, the mineral riches of which were not immediately discovered, offered but few attractions to a government into the coffers of which the wealth of India and Africa was flowing. For nearly thirty years the kings of Portugal paid no further attention to their newly-acquired territory than what consisted, in combating the attempts of the Spaniards to occupy it, and dispersing the private adventurers from France who sought its shores for the purposes of commerce. The colonization of Brazil was prosecuted, however, by subjects of the Portuguese monarchy, who traded thither chiefly for Brazil-wood. The government also sought to make criminals of some use to the state, by placing them in a situation where they could do little harm to society, and might help to uphold the dominion of their nation.

The poor and uncivilized tribes of Brazil, along with their land, which had not yet revealed its mineral wealth, offered few attractions to a government that was already gaining riches from India and Africa. For nearly thirty years, the kings of Portugal paid little attention to their new territory, focusing mainly on fighting off the Spaniards trying to take it and driving away private French adventurers seeking to trade there. However, the colonization of Brazil continued, led by subjects of the Portuguese crown, who primarily traded for Brazil-wood. The government also aimed to put criminals to some useful work for the state by putting them in positions where they could cause minimal harm to society and help maintain their nation's control.

The first attempt on the part of a Portuguese monarch to introduce an organized government into his dominions was made by John III. He adopted a plan which had been found to succeed well in Madeira and the Azores,— First organization in Brazil. dividing the country into hereditary captaincies, and granting them to such persons as were willing to undertake their settlement, with unlimited powers of jurisdiction, both civil and criminal. Each captaincy extended along fifty leagues of coast. The boundaries in the interior were undefined. The first settlement made under this new system was that of São Vicente Piratininga, in the present province of São Paulo. Martim Affonso de Sousa, having obtained a grant, fitted out a considerable armament and proceeded to explore the country in person. He began to survey the coast about Rio de Janeiro, to which he gave that name, because he discovered it on the 1st of January 1531. He proceeded south as far as La Plata, naming the places he surveyed on the way from the days on which the respective discoveries were made. He fixed upon an island in 24½° S. lat., called by the natives Guaibe, for his settlement. The Goagnazes, or prevailing tribe of Indians in that neighbourhood, as soon as they discovered the intentions of the new-comers to fix themselves permanently there, collected for the purpose of expelling them. Fortunately, however, a shipwrecked Portuguese, who had lived many years under the protection of the principal chief, was successful in concluding a treaty of perpetual alliance between his countrymen and the natives. Finding the spot chosen for the new town inconvenient, the colonists removed to the adjoining island of São Vicente, from which the captaincy derived its name. Cattle and the sugar-cane were at an early period introduced from Madeira, and here the other captaincies supplied themselves with both.

The first effort by a Portuguese king to establish an organized government in his territories was made by John III. He put into action a plan that had worked well in Madeira and the Azores,—First organization in Brazil. dividing the land into hereditary captaincies and granting them to those willing to settle, with full civil and criminal jurisdiction. Each captaincy stretched along fifty leagues of coast, while the interior boundaries were not clearly defined. The first settlement created under this new system was São Vicente Piratininga, in what is now São Paulo. Martim Affonso de Sousa received a grant, outfitted a substantial fleet, and personally explored the territory. He began surveying the coast around Rio de Janeiro, naming it as such because he discovered it on January 1, 1531. He traveled south to La Plata, naming each location based on the dates of their discovery. He chose an island at 24½° S. latitude, called Guaibe by the natives, as the site for his settlement. The Goagnazes, the dominant tribe of Native Americans in that area, quickly gathered to try to drive the newcomers away when they realized the settlers intended to stay permanently. Fortunately, a shipwrecked Portuguese who had lived for many years under the protection of the main chief was able to negotiate a treaty of eternal alliance between his fellow countrymen and the natives. Finding the original location unsuitable for the new town, the colonists moved to the nearby island of São Vicente, which gave its name to the captaincy. Cattle and sugar cane were introduced from Madeira early on, and other captaincies sourced both from this location.

Pero Lopes de Sousa received the grant of a captaincy, and set sail from Portugal at the same time as his brother, the founder of São Vicente. He chose to have his fifty leagues in two allotments. That to which he gave the name of Santo Amaro adjoined São Vicente, the two towns being only three leagues asunder. The other division lay much nearer to the line between Parahyba and Pernambuco. He experienced considerable difficulty in founding this second colony, from the strenuous opposition of a neighbouring tribe, the Petiguares; at length he succeeded in clearing his lands of them, but not long afterwards he perished by shipwreck.

Pero Lopes de Sousa received a grant for a captaincy and set sail from Portugal at the same time as his brother, who founded São Vicente. He divided his fifty leagues into two sections. The first he named Santo Amaro, which bordered São Vicente, with the two towns only three leagues apart. The other section was much closer to the border between Paraíba and Pernambuco. He faced significant challenges in establishing this second colony due to strong opposition from a nearby tribe, the Petiguares. Eventually, he managed to remove them from his land, but not long after, he died in a shipwreck.

Rio de Janeiro was not settled till a later period; and for a considerable time the nearest captaincy to Santo Amaro, sailing along the coast northwards, was that of Espirito Santo. It was founded by Vasco Fernandes Coutinho, who having acquired a large fortune in India, sank it in this scheme of colonization. He carried with him no less than sixty fidalgos. They named their town by anticipation, Our Lady of the Victory (Victoria); but it cost them some hard fighting with the Goagnazes to justify the title.

Rio de Janeiro wasn’t settled until later; for a long time, the closest captaincy to Santo Amaro, heading north along the coast, was Espirito Santo. It was established by Vasco Fernandes Coutinho, who had made a fortune in India and invested it in this colonization project. He brought with him no fewer than sixty nobility. They named their town in advance, Our Lady of the Victory (Victoria), but it took them quite a bit of tough fighting with the Goagnazes to earn that name.

Pedro de Campo Tourinho, a nobleman and excellent navigator, received a grant of the adjoining captaincy of Porto Seguro. This, it will be remembered, is the spot where Cabral first took possession of Brazil. The Tupinoquins at first offered some opposition; but having made peace, they observed it faithfully, notwithstanding that the oppression of the Portuguese obliged them to forsake the country. Sugar-works were established, and considerable quantities of the produce exported to the mother country.

Pedro de Campo Tourinho, a nobleman and skilled navigator, received a grant for the neighboring captaincy of Porto Seguro. This is the place where Cabral first claimed Brazil. The Tupinambás initially resisted, but after making peace, they stuck to it, even though the Portuguese oppression forced them to leave their land. Sugar plantations were set up, and significant amounts of the produce were exported to the homeland.

Jorge de Figueiredo, Escrivam da Fazenda, was the first donatory of the captaincy Ilhéos, 140 m. south of Bahia. His office preventing him from taking possession in person, he deputed the task to Francisco Romeiro, a Castilian. The Tupinoquins, the most tractable of the Brazilian tribes, made peace with the settlers, and the colony was founded without a struggle.

Jorge de Figueiredo, Escrivam da Fazenda, was the first grant holder of the Ilhéos captaincy, located 140 miles south of Bahia. Since his position didn’t allow him to take possession personally, he assigned the job to Francisco Romeiro, a Castilian. The Tupinoquins, the most agreeable of the Brazilian tribes, struck a deal with the settlers, and the colony was established without conflict.

The coast from the Rio São Francisco to Bahia was granted to Francisco Pereira Coutinho; the bay itself, with all its creeks, was afterwards added to the grant. When Coutinho formed his establishment, where Villa Velha now stands, he found a noble Portuguese living in the neighbourhood who, having been shipwrecked, had, by means of his fire-arms, raised himself to the rank of chief among the natives. He was surrounded by a patriarchal establishment of wives and children; and to him most of the distinguished families of Bahia still trace their lineage. The regard entertained by the natives for Caramuru (signifying man of fire) induced them to extend a hospitable welcome to his countrymen, and for a time everything went on well. Coutinho had, however, learned in India to be an oppressor, and the Tupinambas were the fiercest and most powerful of the native tribes. The Portuguese were obliged to abandon their settlement; but several of them returned at a later period, with 455 Caramuru, and thus a European community was established in the district.

The coast from the Rio São Francisco to Bahia was granted to Francisco Pereira Coutinho; the bay itself, along with all its creeks, was later added to this grant. When Coutinho set up his settlement, where Villa Velha is now, he encountered a noble Portuguese man living nearby who, having survived a shipwreck, became a chief among the natives thanks to his firearms. He was surrounded by a large family of wives and children, and most of the distinguished families of Bahia trace their lineage back to him. The respect the natives had for Caramuru (which means man of fire) led them to warmly welcome his fellow countrymen, and for a while, everything went smoothly. However, Coutinho had learned to be oppressive in India, and the Tupinambas were the fiercest and most powerful of the native tribes. The Portuguese had to abandon their settlement, but several of them returned later with 455 Caramuru, establishing a European community in the area.

Some time before the period at which these captaincies were established, a factory had been planted at Pernambuco. A ship from Marseilles took it, and left seventy men in it as a garrison; but she was captured on her return, and carried into Lisbon, and immediate measures were taken for reoccupying the place. The captaincy of Pernambuco was granted to Don Duarte Coelho Pereira as the reward of his services in India. It extended along the coast from the Rio São Francisco, northward to the Rio de Juraza. Duarte sailed with his wife and children, and many of his kinsmen, to take possession, of his new colony, and landed in the port of Pernambuco. To the town which was there founded he gave the name of Olinda. The Cabetes, who possessed the soil, were fierce and pertinacious; and, assisted by the French, who traded to that coast, Coelho had to gain by inches what was granted him by leagues. The Portuguese managed, however, to beat off their enemies; and, having entered into an alliance with the Tobayanes, followed up their success.

Some time before the creation of these captaincies, a trading post was established at Pernambuco. A ship from Marseille took it over and left seventy men there as a garrison; however, it was captured on its way back and taken to Lisbon, prompting immediate action to reclaim the site. The captaincy of Pernambuco was awarded to Don Duarte Coelho Pereira as a reward for his services in India. It stretched along the coast from the Rio São Francisco north to the Rio de Juraza. Duarte sailed with his wife, children, and many relatives to take control of his new colony, landing in the port of Pernambuco. He named the town that was founded there Olinda. The Cabetes, who owned the land, were fierce and stubborn; with the help of the French traders who frequented the coast, Coelho had to fight hard for what was granted to him. However, the Portuguese managed to fend off their enemies and, having formed an alliance with the Tobayanes, continued to build on their success.

Attempts were made about this time to establish two other captaincies, but without success. Pedro de Goes obtained a grant of the captaincy of Parahyba between those of São Vicente and Espirito Santo; but his means were too feeble to enable him to make head against the aborigines, and the colony was broken up after a painful struggle of seven years. João de Barros, the historian, obtained the captaincy of Maranhão. For the sake of increasing his capital, he divided his grant with Fernão Alvares de Andrade and Aires da Cunha. They projected a scheme of conquest and colonization upon a large scale. Nine hundred men, of whom one hundred and thirteen were horsemen, embarked in ten ships under the command of Aires da Cunha. But the vessels were wrecked upon some shoals about one hundred leagues to the south of Maranhão; the few survivors, after suffering immense hardships, escaped to the nearest settlements, and the undertaking was abandoned.

Around this time, there were attempts to set up two more captaincies, but they didn’t succeed. Pedro de Goes received a grant for the captaincy of Parahyba, situated between São Vicente and Espirito Santo. However, he didn’t have the resources to stand up to the local tribes, and after a long struggle of seven years, the colony fell apart. João de Barros, the historian, secured the captaincy of Maranhão. To grow his capital, he split his grant with Fernão Alvares de Andrade and Aires da Cunha. They planned a large-scale conquest and colonization effort. Nine hundred men, including one hundred and thirteen horsemen, set sail in ten ships led by Aires da Cunha. Unfortunately, the ships were wrecked on some reefs about a hundred leagues south of Maranhão. The few survivors, after enduring significant hardships, managed to reach the nearest settlements, and the entire venture was called off.

By these adventures the whole line of Brazilian coast, from the mouth of La Plata to the mouth of the Amazon, had become studded at intervals with Portuguese settlements, in all of which law and justice were administered, however inadequately. It is worthy of observation, that Brazil was the first colony founded in America upon an agricultural principle, for until then the precious metals were the exclusive attraction. Sufficient capital was attracted between the year 1531 (in which De Sousa founded the first captaincy) and the year 1548 to render these colonies an object of importance to the mother country. Their organization, however, in regard to their means of defence against both external aggression and internal violence, was extremely defective. Their territories were surrounded and partly occupied by large tribes of savages. Behind them the Spaniards, who had an establishment at Asuncion, had penetrated almost to the sources of the waters of Paraguay, and had succeeded in establishing communication with Peru. Orellana, on the other hand, setting out from Peru, had crossed the mountains and sailed down the Amazon. Nor had the French abandoned their hopes of effecting an establishment on the coast.

Through these adventures, the entire Brazilian coast, from the mouth of the La Plata River to the mouth of the Amazon, became dotted at various points with Portuguese settlements, where law and justice were served, though not very well. It’s noteworthy that Brazil was the first colony established in America based on agriculture; before this, the focus was solely on valuable metals. From 1531 (when De Sousa established the first captaincy) to 1548, enough capital was drawn in to make these colonies significant to the mother country. However, their defense systems against both outside threats and internal conflicts were seriously lacking. Their lands were surrounded and partly occupied by large groups of Indigenous people. Meanwhile, to the west, the Spaniards, who had a settlement in Asuncion, had advanced nearly to the headwaters of the Paraguay River and had managed to connect with Peru. On the flip side, Orellana had traveled from Peru, crossed the mountains, and navigated down the Amazon. Additionally, the French had not given up on their plans to establish a presence along the coast.

The obvious remedy for these evils was to concentrate the executive power, to render the petty chiefs amenable to one tribunal, and to confide the management of the defensive force to one hand. In order to this the powers of the several captains were revoked, whilst their property in their grants was reserved to them. A governor-general was appointed, with full powers, civil and criminal. The judicial and financial functions in each province were vested in the Ouvidor, whose authority in the college of finance was second only to that of the governor. Every colonist was enrolled either in the Milicias or Ordenanzas. The former were obliged to serve beyond the boundaries of the province, the latter only at home. The chief cities received municipal constitutions, as in Portugal. Thome de Sousa was the first person nominated to the important post of governor-general. He was instructed to build a strong city in Bahia and to establish there the seat of his government. In pursuance of his commission he arrived at Bahia in April 1549, with a fleet of six vessels, on board of which were three hundred and twenty persons in the king’s pay, four hundred convicts and about three hundred free colonists. Care had been taken for the spiritual wants of the provinces by associating six Jesuits with the expedition.

The obvious solution to these problems was to centralize executive power, hold the local leaders accountable to a single authority, and place the management of the defense force under one command. To achieve this, the powers of the various captains were revoked, although they retained ownership of their land grants. A governor-general was appointed, with full civil and criminal authority. The judicial and financial responsibilities in each province were assigned to the Ouvidor, whose power in the finance committee was second only to that of the governor. Every colonist was enrolled in either the Milicias or Ordenanzas. The former were required to serve outside the province, while the latter served only locally. Major cities received municipal charters similar to those in Portugal. Thome de Sousa was the first person appointed to the crucial position of governor-general. He was directed to establish a fortified city in Bahia and set up his government there. Following his mandate, he arrived in Bahia in April 1549 with a fleet of six ships carrying three hundred and twenty people on the king’s payroll, four hundred convicts, and about three hundred free settlers. Arrangements were made for the spiritual needs of the provinces by including six Jesuits in the expedition.

Old Caramuru, who still survived, rendered the governor essential service by gaining for his countrymen the goodwill of the natives. The new city, to which the name of São Salvador was given, was established on the heights above the Bay of All Saints (Todos os Santos), from which its later name of Bahia is taken. Within four months one hundred houses were built, and surrounded by a mud wall. Sugar plantations were laid out in the vicinity. During the four years of Sousa’s government there were sent out at different times supplies of all kinds. Female orphans of noble families were given in marriage to the officers, and portioned from the royal estates, and orphan boys were sent to be educated by the Jesuits. The capital rose rapidly in importance, and the captaincies learned to regard it as a common head and centre of wealth. Meanwhile the Jesuits undertook the moral and religious culture of the natives, and First Jesuit missions. of the scarcely less savage colonists. Strong opposition was at first experienced from the gross ignorance of the Indians, and the depravity of the Portuguese, fostered by the licentious encouragement of some abandoned priests who had found their way to Brazil. Over these persons the Jesuits had no authority; and it was not until the arrival of the first bishop of Brazil in 1552, that anything like an efficient check was imposed upon them. Next year Sousa was succeeded by Duarte da Costa, who brought with him a reinforcement of Jesuits, at the head of whom was Luis de Gran, appointed, with Nobrega the chief of the first mission, joint provincial of Brazil.

Old Caramuru, who was still alive, played a crucial role for the governor by winning the goodwill of the natives for his fellow countrymen. The new city, named São Salvador, was established on the heights overlooking the Bay of All Saints (Todos os Santos), from which its later name, Bahia, is derived. Within four months, one hundred houses were built and surrounded by a mud wall. Sugar plantations were set up nearby. During the four years of Sousa’s government, supplies of all kinds were sent out at different times. Female orphans from noble families were married off to the officers and provided for from the royal estates, while orphan boys were sent to be educated by the Jesuits. The capital grew rapidly in significance, and the captaincies began to see it as a common leader and center of wealth. Meanwhile, the Jesuits took on the task of educating the natives morally and spiritually, as well as the somewhat savage colonists. They initially faced strong opposition from the deep ignorance of the Indians and the corruption of the Portuguese, which was encouraged by some immoral priests who had made their way to Brazil. The Jesuits had no authority over these individuals, and it wasn’t until the arrival of the first bishop of Brazil in 1552 that any effective control was established over them. The following year, Sousa was succeeded by Duarte da Costa, who arrived with a reinforcement of Jesuits, led by Luis de Gran, who was appointed alongside Nobrega, the head of the first mission, as joint provincial of Brazil.

Nobrega’s first act was one which has exercised the most beneficial influence over the social system of Brazil, namely, the establishment of a college on the then unreclaimed plains of Piratininga. It was named São Paulo, and has been at once the source whence knowledge and civilization have been diffused through Brazil, and the nucleus of a colony of its manliest and hardiest citizens, which sent out successive swarms of hardy adventurers to people the interior. The good intentions of the Jesuits were in part frustrated by the opposition of Costa the governor; and it was not until 1558, when Mem de Sa was sent out to supersede him, that their projects were allowed free scope.

Nobrega's first action had the most positive impact on Brazil's social system: he established a college on the then undeveloped plains of Piratininga. It was called São Paulo and became the source of knowledge and civilization spreading throughout Brazil, as well as the center for a colony of its strongest and toughest citizens, who sent out successive groups of adventurous settlers to populate the interior. The good intentions of the Jesuits faced challenges from Governor Costa, and it wasn't until 1558, when Mem de Sa was sent to replace him, that their plans were given full permission to proceed.

Rio de Janeiro was first occupied by French settlers. Nicholas Durand de Villegagnon, a bold and skilful seaman, having visited Brazil, saw at once the advantages which might accrue his country from a settlement there. In order to Settlement of Rio de Janeiro. secure the interest of Coligny, he gave out that his projected colony was intended to serve as a place of refuge for the persecuted Huguenots. Under the patronage of that admiral, he arrived at Rio de Janeiro in 1558 with a train of numerous and respectable colonists. As soon, however, as he thought his power secure, he threw off the mask, and began to harass and oppress the Huguenots by every means he could devise. Many of them were forced by his tyranny to return to France; and ten thousand Protestants, ready to embark for the new colony, were deterred by their representations. Villegagnon, finding his force much diminished in consequence of his treachery, sailed for France in quest of recruits; and during his absence the Portuguese governor, by order of his court, attacked and dispersed the settlement. For some years the French kept up a kind of bush warfare; but in 1567 the Portuguese succeeded in establishing a settlement at Rio.

Rio de Janeiro was first settled by French colonists. Nicholas Durand de Villegagnon, a bold and skilled sailor, visited Brazil and immediately recognized the potential benefits a settlement could bring to his country. To gain the support of Coligny, he claimed that his intended colony would be a refuge for persecuted Huguenots. Under the admiral's patronage, he arrived in Rio de Janeiro in 1558 with a large group of respected colonists. However, as soon as he felt his power was secure, he dropped the pretense and began to mistreat and oppress the Huguenots in every way possible. Many were forced to return to France due to his tyranny, and ten thousand Protestants, eager to join the new colony, were discouraged by their accounts. Villegagnon, realizing his numbers had dwindled because of his betrayal, sailed back to France to recruit more people. During his absence, the Portuguese governor, following orders from his government, attacked and dismantled the settlement. For a few years, the French engaged in guerrilla warfare, but in 1567, the Portuguese successfully established a settlement in Rio.

Mem de Sa continued to hold the reins of government in Brazil upon terms of the best understanding with the clergy, and to the great advantage of the colonies, for fourteen years. On the expiration of his power, which was nearly contemporary with that of his life, an attempt was made to divide Brazil into two governments; but this having failed, the territory was reunited in 1578, the year in which Diego Laurenço da Veiga was appointed governor. At this time the colonies, although not yet 456 independent of supplies from the mother country, were in a flourishing condition; but the usurpation of the crown of Portugal by Philip II. changed the aspect of affairs. Brazil, believed to be inferior to the Spanish possessions in mines, was consequently abandoned in comparative neglect for the period intervening between 1578 and 1640, during which it continued an apanage of Spain.

Mem de Sa continued to govern Brazil with a strong partnership with the clergy for fourteen years, benefiting the colonies greatly. When his term ended, coinciding closely with the end of his life, there was an attempt to split Brazil into two separate governments. This effort failed, and in 1578, the territory was reunited, and Diego Laurenço da Veiga was appointed governor. At that time, the colonies were not yet independent from supplies coming from the mother country but were thriving. However, after Philip II took control of Portugal, the situation changed. Brazil was considered less valuable than the Spanish territories rich in mines, leading to its relative neglect from 1578 to 1640, while it remained a part of Spain.

No sooner had Brazil passed under the Spanish crown, than English adventurers directed their hostile enterprises against its shores. In 1586 Witherington plundered Bahia; in 1591 Cavendish made an abortive attack on Santos; English and French aggressions. in 1595 Lancaster attacked Olinda. These exploits, however, were transient in their effects. In 1612 the French attempted to found a permanent colony in the island of Marajò, where they succeeded in maintaining themselves till 1618. This attempt led to the erection of Maranhão and Pará into a separate Estado. But it was on the part of the Dutch that the most skilful and pertinacious efforts were made for securing a footing in Brazil; and they alone of all the rivals of the Portuguese have left traces of their presence in the national spirit and institutions of Brazil.

No sooner had Brazil come under Spanish rule than English adventurers launched their hostile activities against its shores. In 1586, Witherington plundered Bahia; in 1591, Cavendish made a failed attack on Santos; English and French conflicts. in 1595, Lancaster attacked Olinda. However, these exploits had only temporary effects. In 1612, the French tried to establish a permanent colony on the island of Marajò, where they managed to hold out until 1618. This attempt resulted in Maranhão and Pará becoming a separate Estado. But it was the Dutch who made the most skillful and persistent efforts to secure a foothold in Brazil; and they alone among all the rivals of the Portuguese have left lasting marks on the national spirit and institutions of Brazil.

The success of the Dutch East India Company led to the establishment of a similar one for the West Indies, to which a monopoly of the trade to America and Africa was granted. This body despatched in 1624 a fleet against Struggle with the Dutch. Bahia. The town yielded almost without a struggle. The fleet soon after sailed, a squadron being detached against Angola, with the intention of taking possession of that colony, in order to secure a supply of slaves. The fall of Bahia for once roused the Spaniards and Portuguese to joint action, and a great expedition speedily sailed from Cadiz and Lisbon for Bahia. Once more, though strongly garrisoned, the town was retaken without any serious fighting in May 1625. The honours bestowed upon the Indian chiefs for their assistance in this war broke down in a great measure the barrier between the two races; and there is at this day a greater admixture of their blood among the better classes in Bahia than is to be found elsewhere in Brazil.

The success of the Dutch East India Company led to the creation of a similar company for the West Indies, which was given a monopoly on trade with America and Africa. In 1624, this group sent a fleet to Bahia. The town surrendered almost without resistance. Soon after, the fleet set sail again, with a squadron sent to Angola to take control of that colony for a steady supply of slaves. The fall of Bahia finally prompted the Spaniards and Portuguese to work together, and a large expedition quickly left from Cadiz and Lisbon for Bahia. Once again, the well-defended town was retaken with little serious fighting in May 1625. The recognition given to the Indian chiefs for their help in this war significantly weakened the divide between the two races; today, there is a greater mix of their blood among the upper classes in Bahia than is found elsewhere in Brazil.

In 1630 the Dutch attempted again to effect a settlement; and Olinda, with its port, the Recife-Olinda, was destroyed, but the Recife was fortified and held, reinforcements and supplies being sent by sea from Holland. The Dutch settlement in Brazil. Dutch were unable, however, to extend their power beyond the limits of the town, until the arrival of Count John Maurice of Nassau-Siegen in 1636. His first step was to introduce a regular government among his countrymen; his second, to send to the African coast one of his officers, who took possession of a Portuguese settlement, and thus secured a supply of slaves. In the course of eight years, the limited period of his government, he succeeded in asserting the Dutch supremacy along the coast of Brazil from the mouth of São Francisco to Maranhão. The Recife was rebuilt and adorned with splendid residences and gardens and received from its founder the name of Mauritstad. He promoted the amalgamation of the different races, and sought to conciliate the Portuguese by the confidence he reposed in them. His object was to found a great empire; but this was a project at variance with the wishes of his employers—an association of merchants, who were dissatisfied because the wealth which they expected to see flowing into their coffers was expended in promoting the permanent interests of a distant country. Count Maurice resigned his post in 1644. His successors possessed neither his political nor his military talents, and had to contend with more difficult circumstances.

In 1630, the Dutch tried again to establish a settlement; Olinda, along with its port, Recife-Olinda, was destroyed, but Recife was fortified and held, with reinforcements and supplies sent by sea from Holland. The Dutch colony in Brazil. However, the Dutch couldn't extend their power beyond the town limits until Count John Maurice of Nassau-Siegen arrived in 1636. His first action was to create a proper government among his people; his second was to send one of his officers to the African coast, who took over a Portuguese settlement and secured a supply of slaves. During his eight-year term, he managed to establish Dutch control along the Brazilian coast from the São Francisco River to Maranhão. Recife was rebuilt and beautified with impressive residences and gardens and was named Mauritstad by its founder. He encouraged the blending of different races and tried to gain the trust of the Portuguese by showing confidence in them. His goal was to create a large empire, but this conflicted with the desires of his employers—a group of merchants who were unhappy because the wealth they expected to gain was instead being spent on the long-term interests of a distant country. Count Maurice resigned in 1644. His successors lacked his political and military skills and faced more challenging circumstances.

In 1640 the revolution which placed the house of Braganza on the throne of Portugal restored Brazil to masters more inclined to promote its interests and assert its possession than the Spaniards. It was indeed high time that some exertion should be made. The northern provinces had fallen into the power of Holland; the southern, peopled in a great measure by the hardy descendants of the successive colonists who had issued on all sides from the central establishment of São Paulo, had learned from their habits of unaided and successful enterprise to court independence. They had ascended the waters of the Paraguay to their sources. They had extended their limits southwards till they reached the Spanish settlements of La Plata. They had reduced to slavery numerous tribes of the natives. They were rich in cattle, and had commenced the discovery of the mines. When, therefore, the inhabitants of São Paulo saw themselves about to be transferred, as a dependency of Portugal, from one master to another, they conceived the idea of erecting their country into an independent state. Their attempt, however, was frustrated by Amador Bueno, the person whom they had selected for their king. When the people shouted “Long live King Amador,” he cried out “Long live John IV.,” and took refuge in a convent. The multitude, left without a leader, acquiesced, and this important province was secured to the house of Braganza.

In 1640, the revolution that put the house of Braganza on the Portuguese throne returned Brazil to rulers who were more willing to support its interests and maintain possession than the Spaniards were. It was definitely time for some action. The northern provinces had fallen under Dutch control; the southern ones, largely populated by the resilient descendants of colonists from the central settlement of São Paulo, had learned from their experiences of self-sufficient success to pursue independence. They had traveled up the Paraguay River to its sources and expanded southward to the Spanish settlements of La Plata. They had enslaved many native tribes and were wealthy in cattle, beginning to explore the mines. So, when the people of São Paulo realized they were about to be transferred from one ruler to another as a dependency of Portugal, they thought about making their area an independent state. However, their effort failed because of Amador Bueno, the person they chose to be their king. When the crowd shouted "Long live King Amador," he replied, "Long live John IV," and took refuge in a convent. Without a leader, the people accepted this, and this important province remained under the control of the house of Braganza.

Rio and Santos, although both evinced a desire of independence, followed the example of the Paulistas. Bahia, as capital of the Brazilian states, felt that its ascendancy depended upon the union with Portugal. The government, thus left in quiet possession of the rest of Brazil, had time to concentrate its attention upon the Dutch conquests. The crown of Portugal was, however, much too weak to adopt energetic measures. But the Brazilian colonists, now that the mother country had thrown Revolt against the Dutch. off the Spanish yoke, determined even without assistance from the homeland to rise in revolt against foreign domination. The departure of Count Maurice, moreover, had seriously weakened the position of the Dutch, for his successors had neither his conciliatory manners nor his capacity. João Fernandes Vieyra, a native of Madeira, organized the insurrection which broke out in 1645. This insurrection gave birth to one of those wars in which a whole nation, destitute of pecuniary resources, military organization and skilful leaders, but familiar with the country, is opposed to a handful of soldiers advantageously posted and well officered. But home difficulties and financial necessities prevented the West India Company from sending adequate reinforcements from Holland. In 1649 a rival company was started in Portugal known as the Brazil Company, which sent out a fleet to help the colonists in Pernambuco. Slowly the Dutch lost ground and the outbreak of war with England sounded the knell of their dominion in Brazil. In 1654 their capital and last stronghold fell into the hands of Vieyra. It was not, however, till 1662 that Holland signed a treaty with Portugal, by which all territorial claims in Brazil were abandoned in exchange for a cash indemnity and certain commercial privileges. After this, except some inroads on the French expedition to Brazil, 1710. frontiers, the only foreign invasion which Brazil had to suffer was from France. In 1710 a squadron, commanded by Duclerc, disembarked 1000 men, and attacked Rio de Janeiro. After having lost half of his men in a battle, Duclerc and all his surviving companions were made prisoners. The governor treated them cruelly. A new squadron with 6000 troops was entrusted to the famous admiral Duguay Trouin to revenge this injury. They arrived at Rio on the 12th of September 1711. After four days of hard fighting the town was taken. The governor retreated to a position out of it, and was only awaiting reinforcements from Minas to retake it; but, Duguay Trouin threatening to burn it, he was obliged on the 10th of October to sign a capitulation, and pay to the French admiral 610,000 crusados, 500 cases of sugar, and provisions for the return of the fleet to Europe. Duguay Trouin departed to Bahia to obtain fresh spoils; but having lost in a storm two of his best ships, with an important part of the money received, he renounced this plan and returned directly to France.

Rio and Santos, while both showed a desire for independence, followed the example set by the Paulistas. Bahia, as the capital of the Brazilian states, believed its power relied on staying united with Portugal. The government, therefore, was left to quietly control the rest of Brazil and could focus on the Dutch conquests. However, the Portuguese crown was too weak to take decisive action. Meanwhile, Brazilian colonists, now that the mother country had shaken off Spanish rule, decided to revolt against foreign rule even without help from their homeland. The departure of Count Maurice had significantly weakened the Dutch position, as his successors lacked his diplomatic skills and capabilities. João Fernandes Vieyra, a native of Madeira, organized the uprising that began in 1645. This revolt led to a conflict where an entire nation, lacking financial resources, military organization, and skilled leaders but familiar with the land, stood against a small, well-commanded group of soldiers. However, internal challenges and financial constraints prevented the West India Company from sending enough reinforcements from Holland. In 1649, a rival company was established in Portugal called the Brazil Company, which dispatched a fleet to assist the colonists in Pernambuco. Slowly, the Dutch began to lose ground, and the outbreak of war with England marked the end of their control in Brazil. In 1654, their capital and last stronghold fell to Vieyra. It wasn't until 1662 that Holland signed a treaty with Portugal, abandoning all territorial claims in Brazil in exchange for a cash compensation and certain trade privileges. After this, apart from some incursions on the borders, the only foreign invasion Brazil faced was from France. In 1710, a fleet led by Duclerc landed 1,000 men and attacked Rio de Janeiro. After losing half his forces in battle, Duclerc and his remaining men were captured. The governor treated them harshly. A new fleet with 6,000 troops was sent under the famous admiral Duguay Trouin to avenge this defeat. They arrived in Rio on September 12, 1711. After four days of fierce fighting, the town was taken. The governor retreated to a nearby position, waiting for reinforcements from Minas to regain control. However, Duguay Trouin threatened to burn the town, forcing him to sign a surrender on October 10, agreeing to pay the French admiral 610,000 crusados, 500 cases of sugar, and provisions for the fleet's return to Europe. Duguay Trouin then headed to Bahia to seek more spoils, but after losing two of his best ships in a storm along with a significant portion of the money, he abandoned this plan and returned directly to France.

After this the Portuguese governed their colony undisturbed. The approach of foreign traders was prohibited, while the regalities reserved by the crown drained the country of a great proportion of its wealth.

After this, the Portuguese controlled their colony without any interruptions. Foreign traders were banned from approaching, while the royal privileges held by the crown took a significant portion of the country's wealth.

The important part which the inhabitants of São Paulo have played in the history of Brazil has been already adverted to. The establishment of the Jesuit college had attracted settlers to its neighbourhood, and frequent marriages had taken place between the Indians of the district and the colonists. A hardy and enterprising race of men had sprung from this mixture, 457 who, first searching whether their new country were rich in metals, soon began adventurous raids into the interior, making excursions also against the remote Indian tribes with a view to obtaining slaves, and from the year 1629 onwards repeatedly attacked the Indian reductions of the Jesuits in Paraguay, although both provinces were then nominally subject to the crown of Spain. Other bands penetrated into Minas and still farther north and westward, discovering mines there and in Goyaz and Cuyabá. New colonies were thus formed round those districts in which gold had been found, and in the beginning of the 18th century five principal settlements in Minas Geraes had been elevated by royal charter to the privileges of towns. In 1720 this district was separated from São Paulo, to which it had previously been dependent. As early as 1618 a code of laws for the regulation of the mining industry had been drawn up by Philip III., the executive and judicial functions in the mining districts being vested in a provedor, and the fiscal in a treasurer, who received the royal fifths and superintended the weighing of all the gold, rendering a yearly account of all discoveries and produce. For many years, however, these laws were little more than a dead letter. The same infatuated passion for mining speculation which had characterized the Spanish settlers in South America now began to actuate the Portuguese; labourers and capital were drained off to the mining districts, and Brazil, which had hitherto in great measure supplied Europe with sugar, sank before the competition of the English and French. A new source of wealth was now opened up; some adventurers from Villa do Principe in Minas, going north to the Seria Frio, made the discovery of diamonds about the year 1710, but it was not till 1730 that the discovery was for the first time announced to the government, which immediately declared them regalia. While the population of Brazil continued to increase, the moral and intellectual culture of its inhabitants was left in great measure to chance; they grew up with those robust and healthy sentiments which are engendered by the absence of false teachers, but with a repugnance to legal ordinances, and encouraged in their ascendancy over the Indians to habits of violence and oppression. The Jesuits from the first moment of their landing in Brazil had constituted themselves the protectors of the natives, and though strenuously opposed by the colonists and ordinary clergy, had gathered the Indians together in many aldeas, over which officials of their order exercised spiritual and temporal authority. A more efficacious stop, however, was put to the persecution of the Indians by the importation of large numbers of negroes from the Portuguese possessions in Africa, these being found more active and serviceable than the native tribes.

The significant role that the people of São Paulo have played in Brazil's history has already been mentioned. The establishment of the Jesuit college attracted settlers to the area, leading to many marriages between local Indians and the colonists. A tough and enterprising mix of people emerged from this blend, who initially sought out whether their new land had metal resources. They soon started daring raids into the interior, also launching expeditions against distant Indian tribes to acquire slaves. From 1629 onwards, they repeatedly attacked Jesuit Indian settlements in Paraguay, even though both regions were then officially under Spanish rule. Other groups moved into Minas and farther north and west, discovering mines in places like Goyaz and Cuyabá. New colonies formed around these areas where gold was found, and by the early 18th century, five main settlements in Minas Gerais were granted town privileges by royal charter. In 1720, this region was separated from São Paulo, to which it had previously been subordinate. As early as 1618, a mining code was created by Philip III, assigning executive and judicial roles in the mining areas to a provedor, while a treasurer managed fiscal matters, collecting the royal share and overseeing the weighing of all gold, providing an annual report of all discoveries and output. However, for many years, these laws were largely ignored. The same obsessive drive for mining speculation that had motivated Spanish settlers in South America now began to take hold of the Portuguese; workers and capital drained into the mining regions, and Brazil, which had previously supplied Europe with sugar, struggled against competition from the English and French. A new wealth source emerged when adventurers from Villa do Principe in Minas discovered diamonds around 1710, but it wasn't until 1730 that this discovery was first reported to the government, which immediately classified them as regalia. While Brazil's population kept growing, the moral and intellectual development of its people largely depended on circumstance; they matured with strong, healthy values shaped by the absence of corrupting influences, but with a disdain for legal rules, and their dominance over the Indians fostered violent and oppressive behaviors. The Jesuits, from their initial arrival in Brazil, positioned themselves as the protectors of the natives. Despite strong opposition from colonists and local clergy, they gathered the Indians into many aldeas, where members of their order held both spiritual and temporal authority. However, the importation of large numbers of enslaved Africans from Portuguese territories in Africa effectively halted the mistreatment of Indians, as these newcomers were found to be more capable and useful than the native tribes.

The Portuguese government, under the administration of Carvalho, afterwards marquis of Pombal, attempted to extend to Brazil the bold spirit of innovation which directed all his efforts. The proud minister had been resisted Reforms of Pombal. in his plans of reform at home by the Jesuits, and, determining to attack the power of the order, first deprived them of all temporal power in the state of Maranhão and Pará. These ordinances soon spread to the whole of Brazil, and a pretext being found in the suspicion of Jesuit influence in some partial revolts of the Indian troops on the Rio Negro, the order was expelled from Brazil under circumstances of great severity in 1760. The Brazilian Company founded by Vieyra, which so materially contributed to preserve its South American possessions to Portugal, had been abolished in 1721 by John V.; but such an instrument being well suited to the bold spirit of Pombal, he established a chartered company again in 1755, to trade exclusively with Maranhão and Pará; and in 1759, in spite of the remonstrance of the British Factory at Lisbon, formed another company for Parahyba and Pernambuco. Pombal’s arrangements extended also to the interior of the country, where he extinguished at once the now indefinite and oppressive claims of the original donatories of the captaincies, and strengthened and enforced the regulations of the mining districts. The policy of many of Pombal’s measures is more than questionable; but his admission of all races to equal rights in the eye of the law, his abolition of feudal privileges, and the firmer organization of the powers of the land which he introduced, powerfully co-operated towards the development of the capabilities of Brazil. Yet on the death of his king and patron in 1777, when court intrigue forced him from his high station, he who had done so much for his country’s institutions was reviled on all hands.

The Portuguese government, led by Carvalho, who later became the Marquis of Pombal, sought to bring a bold spirit of innovation to Brazil that guided all his actions. The proud minister faced opposition to his reform plans at home from the Jesuits, and determined to challenge their power, he first stripped them of all political influence in the states of Maranhão and Pará. These orders quickly spread throughout Brazil, and seizing on suspicions of Jesuit influence in some localized revolts by Indian troops on the Rio Negro, the order was expelled from Brazil under harsh circumstances in 1760. The Brazilian Company founded by Vieyra, which significantly helped maintain Portugal’s South American holdings, had been dissolved in 1721 by John V.; however, this kind of organization suited Pombal’s ambitious nature, so he established a chartered company again in 1755 to trade exclusively with Maranhão and Pará. In 1759, despite objections from the British Factory in Lisbon, he created another company for Parahyba and Pernambuco. Pombal’s initiatives also reached the interior of the country, where he immediately nullified the vague and oppressive claims of the original landowners of the captaincies and strengthened the laws governing the mining districts. The wisdom of many of Pombal’s policies is certainly questionable; nonetheless, his recognition of all races as having equal rights under the law, his abolition of feudal privileges, and the stronger organization of land authorities he implemented greatly contributed to Brazil's development. Yet after the death of his king and supporter in 1777, when court intrigue forced him out of power, he faced criticism from all sides despite all he had done for his country’s institutions.

The most important feature in the history of Brazil during the first thirty years following the retirement of Pombal was the conspiracy of Minas in 1789. The successful issue of the recent revolution of the English colonies in North America had filled the minds of some of the more educated youth of that province; and in imitation, a project to throw off the Portuguese yoke was formed,—a cavalry officer, Silva Xavier, nicknamed Tira-dentes (tooth-drawer), being the chief conspirator. But the plot being discovered during their inactivity, the conspirators were banished to Africa, and Tira-dentes, the leader, was hanged. Thenceforward affairs went on prosperously; the mining districts continued to be enlarged; the trading companies of the littoral provinces were abolished, but the impulse they had given to agriculture remained.

The most important event in Brazil's history during the first thirty years after Pombal stepped down was the Minas conspiracy in 1789. The success of the recent revolution in the English colonies in North America inspired some of the more educated youth in that region, leading them to create a plan to break free from Portuguese control. A cavalry officer named Silva Xavier, known as Tira-dentes (tooth-drawer), was the main conspirator. However, the plot was uncovered during their lack of action, resulting in the conspirators being exiled to Africa, and Tira-dentes, the leader, was executed by hanging. After that, things went well; the mining regions continued to expand, the trading companies in the coastal provinces were shut down, but the boost they had given to agriculture persisted.

Removed from all communication with the rest of the world except through the mother country, Brazil remained unaffected by the first years of the great revolutionary war in Europe. Indirectly, however, the fate of this isolated Portuguese royal family in Brazil, 1807. country was decided by the consequences of the French Revolution. Brazil is the only instance of a colony becoming the seat of the government of its own mother country, and this was the work of Napoleon. When he resolved upon the invasion and conquest of Portugal, the prince regent, afterwards Dom John VI., having no means of resistance, decided to take refuge in Brazil. He created a regency in Lisbon, and departed for Brazil on the 29th of November 1807, accompanied by the queen Donna Maria I., the royal family, all the great officers of state, a large part of the nobility and numerous retainers. They arrived at Bahia on the 21st of January 1808, and were received with enthusiasm. The regent was requested to establish there the seat of his government, but a more secure asylum presented itself in Rio de Janeiro, where the royal fugitives arrived on the 7th of March. Before leaving Bahia, Dom John took the first step to emancipate Brazil, opening its ports to foreign commerce, and permitting the export of all Brazilian produce under any flag, the royal monopolies of diamonds and Brazil-wood excepted. Once established in Rio de Janeiro, the government of the regent was directed to the creation of an administrative machinery for the dominions that remained to him as it existed in Portugal. Reorganization on Portuguese model. Besides the ministry which had come with the regent, the council of state, and the departments of the four ministries of home, finances, war and marine then existing, there were created in the course of one year a supreme court of justice, a board of patronage and administration of the property of the church and military orders, an inferior court of appeal, the court of exchequer and royal treasury, the royal mint, bank of Brazil, royal printing-office, powder-mills on a large scale, and a supreme military court. The maintenance of the court, and the salaries of so large a number of high officials, entailed the imposition of new taxes to meet these expenses. Notwithstanding this the expenses continued to augment, and the government had recourse to the reprehensible measure of altering the money standard, and the whole monetary system was soon thrown into the greatest confusion. The bank, in addition to its private functions, farmed many of the regalia, and was in the practice of advancing large sums to the state, transactions which gave rise to extensive corruption, and terminated some years later in the breaking of the bank.

Cut off from all communication with the outside world except through the mother country, Brazil remained untouched by the initial years of the great revolutionary war in Europe. However, the fortunes of this isolated Portuguese royal family in Brazil, 1807. country were ultimately shaped by the effects of the French Revolution. Brazil is unique in that it became the center of government for its own mother country, a change brought about by Napoleon. When he decided to invade and conquer Portugal, the prince regent, who later became Dom John VI, had no means to resist and chose to take refuge in Brazil. He established a regency in Lisbon and left for Brazil on November 29, 1807, accompanied by Queen Donna Maria I, the royal family, high-ranking officials, a large portion of the nobility, and numerous followers. They arrived in Bahia on January 21, 1808, to a warm welcome. The regent was asked to set up his government there, but a safer option was found in Rio de Janeiro, where the royal group arrived on March 7. Before leaving Bahia, Dom John took the first step to free Brazil by opening its ports to foreign trade and allowing the export of all Brazilian goods under any flag, apart from the royal monopolies on diamonds and Brazilwood. Once settled in Rio de Janeiro, the regent's government focused on creating an administrative structure for the territories under his control, modeled after that of Portugal. Reorganization based on the Portuguese model. In addition to the ministry that came with the regent, the council of state, and the four existing ministries of home affairs, finance, war, and marine, a number of institutions were established within a year: a supreme court of justice, a board for the management of church properties and military orders, an inferior court of appeal, a court of exchequer and royal treasury, a royal mint, the bank of Brazil, a royal printing office, large-scale powder mills, and a supreme military court. Supporting the court and the salaries of so many high officials required the introduction of new taxes to cover these expenses. Even so, costs continued to rise, and the government resorted to the questionable tactic of altering the currency standard, which soon led to major chaos in the monetary system. The bank, alongside its private functions, handled many of the regalia and routinely lent large amounts to the state, practices that led to widespread corruption and ultimately resulted in the bank's collapse several years later.

Thus the government of the prince regent began its career in the new world with dangerous errors in the financial system; yet the increased activity which a multitude of new customers and the increase of circulating medium gave to the trade of Rio, added a new stimulus to the industry of the whole nation. 458 Numbers of English artisans and shipbuilders, Swedish iron-founders, German engineers and French manufacturers sought fortunes in the new country, and diffused industry by their example.

Thus, the government of the prince regent started its journey in the new world with risky mistakes in the financial system; however, the surge in activity brought by a wave of new customers and the rise in the money supply boosted trade in Rio, providing a fresh drive to the industry of the entire nation. 458 Many English craftsmen and shipbuilders, Swedish ironworkers, German engineers, and French manufacturers looked for opportunities in the new country and spread industrial skills by their example.

In the beginning of 1809, in retaliation for the occupation of Portugal, an expedition was sent from Pará to the French colony of Guiana, and after some fighting this part of Guiana was incorporated with Brazil. This conquest was, however, of short duration; for, by the treaty of Vienna in 1815, the colony was restored to France. Its occupation contributed to the improvement of agriculture in Brazil; it had been the policy of Portugal up to this time to separate the productions of its colonies, to reserve sugar for Brazil, and spices to the East Indies, and to prohibit the cultivation of these in the African possessions. Now, however, many plants were imported not only from Guiana but from India and Africa, cultivated in the Royal Botanic Garden, and thence distributed. The same principle which dictated the conquest of French Guiana originated attempts to seize the Spanish colonies of Montevideo and Buenos Aires, Portugal being also at war with Spain. The chiefs of these colonies were invited to place them under the protection of the Portuguese crown, but these at first affecting loyalty to Spain declined the offer, then threw off the mask and declared themselves independent, and the Spanish governor, Elio, was afterwards defeated by Artigas, the leader of the independents.

At the beginning of 1809, in response to the occupation of Portugal, an expedition was sent from Pará to the French colony of Guiana, and after some fighting, this part of Guiana was incorporated into Brazil. However, this conquest was short-lived; by the Treaty of Vienna in 1815, the colony was returned to France. Its occupation helped improve agriculture in Brazil; until then, Portugal's policy had been to separate the products of its colonies, reserving sugar for Brazil and spices for the East Indies while prohibiting their cultivation in the African territories. Now, many plants were imported not only from Guiana but also from India and Africa, cultivated in the Royal Botanic Garden, and then distributed. The same reasoning that led to the conquest of French Guiana also sparked attempts to seize the Spanish colonies of Montevideo and Buenos Aires, as Portugal was at war with Spain. The leaders of these colonies were invited to put themselves under the protection of the Portuguese crown, but initially, claiming loyalty to Spain, they turned down the offer. Eventually, they dropped the pretense and declared their independence, leading to the defeat of the Spanish governor, Elio, by Artigas, the leader of the independents.

The inroads made on the frontiers of Rio Grande and São Paulo decided the court of Rio to take possession of Montevideo; a force of 5000 troops was sent thither from Portugal, together with a Brazilian corps; and the irregulars Brazil declared an integral portion of the monarchy. of Artigas, unable to withstand disciplined troops, were forced, after a total defeat, to take refuge beyond the River Uruguay. The Portuguese took possession of the city of Montevideo in January 1817, and the territory of Misiones was afterwards occupied. The importance which Brazil was acquiring decided the regent to give it the title of kingdom, and by decree of the 16th January 1815, the Portuguese sovereignty thenceforward took the title of the United Kingdom of Portugal, Brazil and Algarves. Thus the old colonial government disappeared even in name. In March 1816 the queen Donna Maria I. died, and the prince regent became king under the title of Dom John VI.

The advances made on the borders of Rio Grande and São Paulo led the court in Rio to take control of Montevideo. A force of 5,000 troops was sent there from Portugal, along with a Brazilian corps, and the irregulars from Artigas, unable to withstand the trained soldiers, were forced to flee beyond the River Uruguay after a complete defeat. The Portuguese took control of the city of Montevideo in January 1817, and the territory of Misiones was later occupied. The growing importance of Brazil prompted the regent to elevate its status to a kingdom, and by decree on January 16, 1815, Portuguese sovereignty was officially named the United Kingdom of Portugal, Brazil, and Algarves. Thus, the old colonial government ceased to exist, even in name. In March 1816, Queen Donna Maria I died, and the prince regent became king, taking the title of Dom John VI.

Although Brazil had now become in fact the head of its own mother country, the government was not in the hands of Brazilians, but of the Portuguese, who had followed the court. The discontent arising among Brazilians from this cause was heightened by a decree assigning a heavy tax on the chief Brazilian custom houses, to be in operation for forty years, for the benefit of the Portuguese noblemen who had suffered during the war with France. The amiable character of the king preserved his own popularity, but the government was ignorant and profligate, justice was ill administered, negligence and disorder reigned in all its departments. Nor was the discontent less in Portugal on account of its anomalous position. These causes and the fermentation of liberal principles produced by the French Revolution originated a conspiracy in Lisbon in 1817, which was, however, discovered in time to prevent its success. A similar plot and rebellion took place in the province of Pernambuco, where the inhabitants of the important commercial city of Recife (Pernambuco) were jealous of Rio and the sacrifices they were compelled to make for the support of the luxurious court there. Another conspiracy to establish a republican government was promptly smothered in Bahia, and the outbreak in Pernambuco was put down after a republic had been formed there for ninety days. Still the progress of the republican spirit in Brazil caused Dom João to send to Portugal for bodies of picked troops, which were stationed throughout the provincial capitals. In Portugal the popular discontent produced the revolution of 1820, when representative government was proclaimed—the Spanish constitution of 1812 being provisionally adopted. In Rio, the Portuguese troops with which the king had surrounded himself as the defence against the liberal spirit of the Brazilians, took up arms on the 26th of February 1821, to force him to accept the system proclaimed in Portugal. The prince Dom Pedro, heir to the crown, who now for the first time took part in public affairs, actively exerted himself as a negotiator between the king and the troops, who were joined by bodies of the people. After attempting a compromise the king finally submitted, took the oath and named a new ministry. The idea of free government filled the people with enthusiasm, and the principles of a representative legislature were freely adopted, the first care being for the election of deputies to the Cortes of Lisbon to take part in framing the new constitution. As the king could not abandon Portugal to itself he determined at first to send the prince thither as regent, but Dom Pedro had acquired such popularity by his conduct in the revolution, and had exhibited such a thirst for glory, that the king feared to trust his adventurous spirit in Europe, and decided to go himself. The Brazilian deputies on arriving in Lisbon expressed dissatisfaction with the Cortes for having begun the framing of the constitution before their arrival, for Brazil could not be treated as a secondary part of the monarchy. Sharp discussions and angry words passed between the Brazilian and Portuguese deputies, the news of which excited great discontent in Brazil. An insulting decree was passed in the Cortes, ordering the prince Dom Pedro to come to Europe, which filled the Brazilians with alarm; they foresaw that without a central authority the country would fall back to its former colonial state subject to Portugal. The provisional government of São Paulo, influenced by the brothers Andrada, began a movement for independence by asking the prince to disobey the Cortes and remain in Brazil, and the council of Rio de Janeiro followed with a similar representation, to which the prince assented. The Portuguese troops of the capital at first assumed a coercive attitude, but were forced to give way before the ardour and military preparations of the Brazilians, and submitted to embark for Portugal. These scenes were repeated in Pernambuco, where Pedro proclaims the independence of Brazil, 1822. the Portuguese, after various conflicts, were obliged to leave the country; in Bahia, however, as well as in Maranhão and Pará, the Portuguese prevailed. In the agitation for independence continued. The two brothers Andrada were called to the ministry; and the municipal council conferred upon the prince regent the title of Perpetual Defender of Brazil. With great activity he set off to the central provinces of Minas and São Paulo to suppress disaffected movements and direct the revolution. In São Paulo, on the 7th of September 1822, he proclaimed the independence of Brazil. On his return to Rio de Janeiro on the l2th of October he was proclaimed constitutional emperor with great enthusiasm.

Although Brazil had effectively become the capital of its own parent country, the government was still controlled by the Portuguese who had followed the royal family. The frustration among Brazilians was intensified by a decree imposing a heavy tax on the main Brazilian customs houses, set to last for forty years, to benefit Portuguese noblemen who had suffered during the war with France. The king's likable nature kept him popular, but the government was incompetent and wasteful, justice was poorly administered, and neglect and chaos prevailed in all its departments. Frustration was also strong in Portugal due to its contradictory situation. These factors, along with the rise of liberal ideas sparked by the French Revolution, led to a conspiracy in Lisbon in 1817, which was discovered early enough to prevent it from succeeding. A similar plot and rebellion occurred in the province of Pernambuco, where the residents of the key commercial city of Recife were resentful of Rio and the sacrifices they were making to support the opulent court there. Another conspiracy aimed at establishing a republican government was quickly crushed in Bahia, and the uprising in Pernambuco was suppressed after a republic was formed there for ninety days. Still, the growing republican sentiment in Brazil prompted Dom João to send for select troops from Portugal, which were stationed in the provincial capitals. In Portugal, widespread resentment led to the revolution of 1820, during which a representative government was declared—the Spanish constitution of 1812 was provisionally adopted. In Rio, the Portuguese troops surrounding the king as a defense against the Brazilians' liberal ideals took up arms on February 26, 1821, to force him to accept the system set up in Portugal. Prince Dom Pedro, heir to the crown, became involved in public affairs for the first time and actively worked as a mediator between the king and the troops, who were joined by groups of the people. After trying to reach a compromise, the king ultimately submitted, took the oath, and appointed a new ministry. The notion of free government excited the people, and they quickly embraced the principles of a representative legislature, with the first priority being the election of deputies to the Cortes of Lisbon to help draft the new constitution. Since the king could not leave Portugal unattended, he initially decided to send the prince there as regent, but Dom Pedro had gained so much popularity through his actions during the revolution and shown such a desire for glory that the king worried about letting him roam freely in Europe and opted to go himself. When the Brazilian deputies arrived in Lisbon, they expressed frustration with the Cortes for starting to draft the constitution before their arrival, insisting that Brazil shouldn’t be treated as a lesser part of the monarchy. Tense debates and heated exchanges erupted between the Brazilian and Portuguese deputies, leading to significant discontent back in Brazil. The Cortes passed a disrespectful decree ordering Prince Dom Pedro to come to Europe, alarming Brazilians; they feared that without a central authority, the country would revert to its former colonial status under Portugal. The provisional government of São Paulo, influenced by the Andrada brothers, initiated a movement for independence by urging the prince to defy the Cortes and stay in Brazil, and the council of Rio de Janeiro echoed this request, which the prince agreed to. The Portuguese troops in the capital initially took a coercive stance but were eventually compelled to retreat in light of the fervor and military readiness of the Brazilians, and they agreed to return to Portugal. Similar events transpired in Pernambuco, where the Portuguese were forced out after various skirmishes; however, they maintained control in Bahia, Maranhão, and Pará. The push for independence carried on. The two Andrada brothers were called into the ministry, and the municipal council granted the prince regent the title of Perpetual Defender of Brazil. With great urgency, he traveled to the central provinces of Minas and São Paulo to quash discontent and lead the revolution. In São Paulo, on September 7, 1822, he declared Brazil's independence. Upon his return to Rio de Janeiro on October 12, he was enthusiastically proclaimed constitutional emperor.

The Cortes at Lisbon chose Bahia as a centre for resisting the independence, and large forces were sent thither. But the city was vigorously besieged by the Brazilians by land, and finally the Portuguese were obliged to re-embark on the 2nd of July 1823. A Brazilian squadron, under command of Lord Cochrane, attacked the Portuguese vessels, embarrassed with troops, and took several of them. Taylor, another Englishman in Brazilian service, followed the vessels across the Atlantic, and even captured some of the ships in sight of the land of Portugal. The troops in Montevideo also embarked for Portugal, and the Banda Oriental remained a part of Brazil with the title of the Provincia Cisplatina. Before the end of 1823 the authority of the new emperor and the independence of Brazil were undisputed throughout the whole country.

The Cortes in Lisbon selected Bahia as a base to fight against independence, sending large forces there. However, the city was heavily besieged by Brazilian forces on land, and ultimately the Portuguese had to evacuate on July 2, 1823. A Brazilian fleet, led by Lord Cochrane, attacked the Portuguese ships, which were struggling with troops on board, capturing several of them. Another Englishman, Taylor, serving in the Brazilian army, pursued these ships across the Atlantic and even seized some vessels within sight of Portugal. The troops in Montevideo also set sail for Portugal, and the Banda Oriental remained part of Brazil under the name Provincia Cisplatina. By the end of 1823, the authority of the new emperor and Brazil's independence were recognized throughout the entire country.

Republican movements now began to spread, to suppress which the authorities made use of the Portuguese remaining in the country; and the disposition of the emperor to consider these as his firmest supporters much influenced the course of his government and his future destiny. The two Andradas, who imagined they could govern the young emperor as a sovereign of their own creation, encountered great opposition in the constitutional assembly, which had been opened in Rio in May 1823, to discuss the project of a new constitution. In July the emperor resolved to dismiss them and form a new ministry, but against this the brothers raised a violent opposition. In November the emperor put an end to the angry debates which 459 ensued in the assembly by dissolving it, exiling the Andradas to France, and convoking a new assembly to deliberate on a proposed constitution more liberal than the former project. The proclamation of a republic in the provinces of Pernambuco and Ceará, with the rebellion of the Cisplatina province, favoured by Buenos Aires and its ultimate loss to Brazil, were the result of the coup d’état of November 1823. The Brazilians were universally discontented—on one side fearing absolutism if they supported the emperor, on the other anarchy if he fell. Knowing the danger of an undefined position, the emperor caused the councils to dispense with their deliberations, and adopt, as the constitution of the empire, the project framed by the council of state. Accordingly, on the 25th of March 1824, Constitution of 1824. the emperor swore to the constitution with great solemnity and public rejoicings. By this stroke of policy he saved himself and Brazil. Negotiations were opened in London between the Brazilian and Portuguese plenipotentiaries, treating for the recognition of the independence of Brazil; and on the 25th of August 1825 a treaty was signed by which the Portuguese king, Dom John VI., assumed the title of emperor of Brazil, and immediately abdicated in favour of his son, acknowledging Brazil as an independent empire, but the treaty obliged Brazil to take upon herself the Portuguese debt, amounting to nearly two millions sterling.

Republican movements began to spread, prompting the authorities to rely on the Portuguese still in the country. The emperor's inclination to view these individuals as his strongest supporters significantly influenced his administration and future. The two Andradas, who believed they could control the young emperor as if he were their own creation, faced fierce resistance in the constitutional assembly, which convened in Rio in May 1823 to discuss a new constitution. In July, the emperor decided to dismiss them and create a new ministry, but the brothers strongly opposed this. In November, the emperor ended the heated debates in the assembly by dissolving it, exiling the Andradas to France, and calling for a new assembly to discuss a proposed constitution that was more progressive than the previous one. The declaration of a republic in the provinces of Pernambuco and Ceará, along with the rebellion in the Cisplatina province, which was supported by Buenos Aires and ultimately led to its loss to Brazil, resulted from the coup d'état in November 1823. Brazilians were broadly dissatisfied—some feared absolutism if they supported the emperor, while others dreaded chaos if he were overthrown. Understanding the risks of such uncertainty, the emperor ordered the councils to cease their discussions and adopted the draft created by the council of state as the constitution of the empire. Therefore, on March 25, 1824, the emperor swore to the constitution with great seriousness, and the public celebrated. Through this strategic move, he secured his position and Brazil's stability. Negotiations began in London between Brazilian and Portuguese representatives regarding Brazil’s independence. On August 25, 1825, a treaty was signed in which the Portuguese king, Dom John VI, took on the title of emperor of Brazil and immediately abdicated in favor of his son, recognizing Brazil as an independent empire. However, the treaty required Brazil to assume the Portuguese debt, which amounted to nearly two million sterling.

The rebellion of the Banda Oriental was followed by a declaration of war with Buenos Aires which had supported it, and operations by sea and land were conducted against that republic in a feeble way. Meanwhile the well-deserved popularity of the emperor began to decline. He had given himself up to the influence of the Portuguese; the most popular men who had worked for the independence were banished; and a continual change of ministry showed a disposition on the part of the sovereign to prosecute obstinately measures of which his advisers disapproved. His popularity was regained, however, to some extent, when, on the death of his father, he was unanimously acknowledged king of Portugal, and especially when he abdicated that crown in favour of his daughter, Donna Maria; but his line of policy was not altered, and commercial treaties entered into with European states conceding them favours, which were popularly considered to be injurious to Brazilian trade, met with bitter censure.

The rebellion in the Banda Oriental was followed by a declaration of war against Buenos Aires, which had supported it, and military actions by sea and land were carried out against that republic in a weak manner. Meanwhile, the former popularity of the emperor began to wane. He became too influenced by the Portuguese; many of the most respected figures who had fought for independence were exiled, and a constant turnover of ministers indicated that the emperor was stubbornly pursuing measures his advisers disagreed with. However, his popularity did recover somewhat when, upon his father's death, he was unanimously recognized as king of Portugal, and especially when he abdicated that crown in favor of his daughter, Donna Maria; yet his policy remained unchanged, and the commercial treaties signed with European countries granting them benefits, which were widely seen as harmful to Brazilian trade, faced harsh criticism.

During the year 1827 the public debt was consolidated, and a department was created for the application of a sinking fund.

During the year 1827, the public debt was consolidated, and a department was established to manage a sinking fund.

The year 1828 was a calamitous one for Brazil. It began with the defeat of the Brazilian army by the Argentine forces, and this entirely through the incapacity of the commander-in-chief; and misunderstandings, afterwards compensated by humbling money-payments on the part of Brazil, arose with the United States, France and England on account of merchant vessels captured by the Brazilian squadron blockading Buenos Aires. Financial embarrassments increased to an alarming extent; the emperor was compelled by the British government to make peace with Buenos Aires and to renounce the Banda Oriental; and to fill the sum of disasters Dom Miguel had treacherously usurped the crown of Portugal. It was under these unlucky auspices that the elections of new deputies took place in 1829. As was expected the result was the election everywhere of ultra-liberals opposed to the emperor, and in the succeeding year people everywhere exhibited their disaffection. During the session of 1830 the chambers adopted a criminal code in which punishment by death for political offences was abolished. It was openly suggested in the journals to reform the constitution by turning Brazil into independent federal provinces, governed by authorities popularly elected, as in the United States. Alarmed at length at the ground gained by this idea in the provinces, the emperor set off to Minas to stir up the former enthusiasm in his favour from recollections of the independence, but was coldly received. On his return to Rio in March 1831 scenes of disorder occurred, and great agitation among the Liberal party. Imagining himself sure of a brilliant destiny in Europe if he lost his Brazilian crown, the emperor attempted to risk a decisive attack against the Liberals, and to form a new Abdication of Pedro I., 1831. ministry composed of men favourable to absolutism. This step caused excited public meetings in the capital, which were joined in by the troops, and deputations went to ask the emperor to dismiss the unpopular ministry. He replied by dissolving the ministry without naming another, and by abdicating the crown in favour of the heir apparent, then only five years of age. Dom Pedro immediately embarked in an English ship, leaving the new emperor Dom Pedro II. and the princesses Januaria, Francisca and Paula. The subsequent career of this unfortunate prince belongs to the history of Portugal.

The year 1828 was a disastrous one for Brazil. It started with the Brazilian army's defeat by Argentine forces, entirely due to the incompetence of the commander-in-chief. Furthermore, misunderstandings arose with the United States, France, and England over merchant ships captured by the Brazilian squadron blockading Buenos Aires, leading to Brazil having to pay reparations. Financial troubles worsened significantly; the emperor was forced by the British government to make peace with Buenos Aires and give up Banda Oriental. To add to the misfortunes, Dom Miguel had treacherously taken the crown of Portugal. It was under these unfortunate circumstances that elections for new deputies were held in 1829. As expected, ultra-liberals opposed to the emperor were elected everywhere, and in the following year, public discontent was evident throughout the country. During the 1830 session, the chambers passed a criminal code that abolished the death penalty for political offenses. It was openly proposed in the newspapers to reform the constitution by turning Brazil into independent federal provinces, governed by popularly elected officials, like the United States. Finally alarmed by the growing support for this idea in the provinces, the emperor traveled to Minas to rekindle the previous enthusiasm for him, recalling the spirit of independence, but he received a lukewarm welcome. Upon his return to Rio in March 1831, disorder broke out, and there was significant unrest among the Liberal party. Believing he would have a bright future in Europe if he lost his Brazilian crown, the emperor tried to launch a decisive attack against the Liberals and form a new ministry made up of supporters of absolutism. This prompted excited public gatherings in the capital, which were joined by the military, and delegations went to ask the emperor to dismiss the unpopular ministry. He responded by dissolving the ministry without appointing a new one and abdicated the crown in favor of the young heir apparent, who was only five years old at the time. Dom Pedro immediately boarded an English ship, leaving the new emperor Dom Pedro II and the princesses Januaria, Francisca, and Paula. The later life of this unfortunate prince is part of Portugal's history.

A provisional and afterwards a permanent regency, composed of three members, was now formed in Brazil, but scenes of disorder succeeded, and discussions and struggles between the republican party and the government, and a reactionary third party in favour of the restoration of Dom Pedro, occupied the succeeding years. In 1834 a reform which was well received consisted in the alteration of the regency, from that of three members elected by the legislative chambers, to one regent chosen by the whole of the electors in the same manner as the deputies; and the councils of the provinces were replaced by legislative provincial assemblies. Virtually, this was a republican government like that of the United States, for no difference existed in the mode of election of the regent from that of a president. The ex-minister Feijoó was chosen for this office. With the exception of Pará and Rio Grande the provinces were at peace, but these were in open rebellion; the former was reduced to obedience, but in the latter, though the imperial troops occupied the town, the country was ravaged by its warlike inhabitants. The regent was now accused of conniving at this rebellion, and the opposition of the chamber of deputies became so violent as to necessitate his resignation. Araujo Lima, minister of the home department, who strove to give his government the character of a monarchical reaction against the principles of democracy, was chosen by a large majority in his stead. The experiment of republican government had proved so discreditable, and had so wearied the country of cabals, that men hitherto known for their sympathy with democratic principles became more monarchical than the regent himself; and under this influence a movement to give the regency into the hands of the princess Donna Januaria, now in her 18th year, was set on foot. It was soon perceived, however, that if the empire could be governed by a princess of eighteen it could be managed better by the emperor himself, who was then fourteen.

A temporary and then a permanent regency, made up of three members, was established in Brazil, but chaos followed, with disputes and conflicts between the republican party and the government, as well as a reactionary third party that wanted to restore Dom Pedro, filling the following years. In 1834, a popular reform changed the regency from three members elected by the legislative chambers to a single regent elected by all the voters in the same way as the deputies; the provincial councils were replaced by legislative provincial assemblies. Essentially, this was a republican government akin to that of the United States, as there was no difference in the way the regent was elected compared to the president. The former minister Feijoó was selected for this position. Except for Pará and Rio Grande, the provinces were largely peaceful, but those two were in open rebellion; Pará was brought back under control, but despite the imperial troops occupying the town in Rio Grande, the countryside was devastated by its fierce inhabitants. The regent was accused of condoning this rebellion, and the opposition in the chamber of deputies became so intense that he had to resign. Araujo Lima, the minister of the home department, who sought to steer his government towards a monarchical response against democratic ideals, was elected by a large majority to take his place. The attempt at republican government was seen as so unsuccessful, and the public was so exhausted by political intrigues, that those previously noted for their support of democratic principles became more monarchist than the regent himself; under this influence, a movement to place the regency in the hands of Princess Donna Januaria, who was now 18, began to take shape. However, it soon became clear that if the empire could be run by an 18-year-old princess, it would be better managed by the 14-year-old emperor himself.

A bill was accordingly presented to the legislature dispensing with the age of the emperor and declaring his majority, which after a noisy discussion was carried. The majority of the emperor Dom Pedro II. was proclaimed on the Majority of Pedro II., 1840. 23rd of July 1840. Several ministries, in which various parties predominated for a time, now governed the country till 1848, during which period the rebellious province of Rio Grande was pacified, more by negotiation than force of arms. In 1848 hostilities were roused with the British government through the neglect shown by the Brazilians in putting in force a treaty for the abolition of the slave trade, which had been concluded as far back as 1826; on the other hand the governor of Buenos Aires, General Rosas, was endeavouring to stir up revolution again in Rio Grande. The appearance of yellow fever in 1849, until then unknown in Brazil, was attributed to the importation of slaves. Public opinion declared against the traffic; severe laws were passed against it, and were so firmly enforced that in 1853 not a single disembarkation took place. The ministry of the Visconde de Olinda in 1849 entered into alliances with the governors of Montevideo, Paraguay and the states of Entre Rios and Corrientes, for the purpose of maintaining the integrity of the republics of Uruguay and Paraguay, which Rosas intended to reunite to Buenos Aires, and the troops of Rosa’s which besieged Montevideo were forced to capitulate. Rosas then declared war formally against Brazil. An army of Correntine, Uruguayan and Brazilian troops, under 460 General Urquiza, assisted by a Brazilian naval squadron, advanced on Buenos Aires, completely routed the forces of Rosas, and crushed for ever the power of that dictator. From 1844 Brazil was free from intestine commotions, and had resumed its activity. Public works and education were advanced, and the finances rose to a degree of prosperity previously unknown.

A bill was presented to the legislature that removed the age restrictions on the emperor and declared him of age. After a heated debate, it was approved. The majority of Emperor Dom Pedro II was proclaimed on the Majority of Pedro II, 1840. July 23, 1840. Several ministries, representing various parties for a time, governed the country until 1848, during which the rebellious province of Rio Grande was brought under control more through negotiation than military force. In 1848, tensions arose with the British government because Brazil neglected to enforce a treaty from 1826 that abolished the slave trade. Meanwhile, General Rosas, the governor of Buenos Aires, was trying to incite another revolution in Rio Grande. The outbreak of yellow fever in 1849, which had not been seen in Brazil before, was blamed on the importation of slaves. Public sentiment turned against the slave trade, leading to strict laws against it, which were enforced so effectively that by 1853, there were no arrivals of slaves. The ministry of Visconde de Olinda in 1849 formed alliances with the governors of Montevideo, Paraguay, and the states of Entre Rios and Corrientes to protect the integrity of the republics of Uruguay and Paraguay, which Rosas aimed to merge with Buenos Aires. The troops led by Rosas that were besieging Montevideo were forced to surrender. Rosas then formally declared war against Brazil. An army of troops from Corrientes, Uruguay, and Brazil, led by General Urquiza and supported by a Brazilian naval squadron, advanced on Buenos Aires, completely defeating Rosas's forces and permanently ending his tyranny. After 1844, Brazil was free from internal strife and had resumed its activities. Public works and education progressed, and the economy reached a level of prosperity previously unseen.

In 1855 the emperor of Brazil sent a squadron of eleven men-of-war and as many transports up the Paraná to adjust several questions pending between the empire and the republic of Paraguay, the most important of which War with Paraguay. was that of the right of way by the Paraguay river to the interior Brazilian province of Matto Grosso. This right had been in dispute for several years. The expedition was not permitted to ascend the river Paraguay, and returned completely foiled in its main purpose. Though the discord resulting between the states on account of this failure was subsequently allayed for a time by a treaty granting to Brazil the right to navigate the river, every obstacle was thrown in the way by the Paraguayan government, and indignities of all kinds were offered not only to Brazil but to the representatives of the Argentine and the United States. In 1864 the ambitious dictator of Paraguay, Francisco Solano Lopez, without previous declaration of war, captured a Brazilian vessel in the Paraguay, and rapidly followed up this outrage by an armed invasion of the provinces of Matto Grosso and Rio Grande in Brazil, and that of Corrientes in the Argentine Republic. A triple alliance of the invaded states with Uruguay ensued, and the tide of war was soon turned from being an offensive one on the part of Paraguay to a defensive struggle within that republic against the superior number of the allies. So strong was the natural position of Paraguay, however, and so complete the subjection of its inhabitants to the will of the dictator, that it was not until the year 1870, after the republic had been completely drained of its manhood and resources, that the long war was terminated by the capture and death of Lopez with his last handful of men by the pursuing Brazilians. From its duration and frequent battles and sieges this war involved an immense sacrifice of life to Brazil, the army in the field having been constantly maintained at between 20,000 and 30,000 men, and the expenditure in maintaining it was very great, having been calculated at upwards of fifty millions sterling. Large deficits in the financial budgets of the state resulted, involving increased taxation and the contracting of loans from foreign countries.

In 1855, the emperor of Brazil sent a fleet of eleven warships and an equal number of transport ships up the Paraná River to resolve several issues between the empire and the Republic of Paraguay, the most significant being the right to navigate the Paraguay River to the Brazilian province of Mato Grosso. This right had been contested for several years. The expedition was not allowed to proceed up the Paraguay River and returned completely unsuccessful in its main goal. Though the resulting conflict between the states was temporarily eased by a treaty that granted Brazil the right to navigate the river, the Paraguayan government placed numerous obstacles in Brazil's way and subjected not only Brazil but also representatives from Argentina and the United States to various indignities. In 1864, the ambitious dictator of Paraguay, Francisco Solano Lopez, captured a Brazilian ship on the Paraguay River without declaring war first, and quickly followed this act with an armed invasion of the provinces of Mato Grosso and Rio Grande in Brazil, as well as Corrientes in Argentina. This led to a triple alliance of the invaded states with Uruguay, shifting the war from being offensive for Paraguay to a defensive struggle for the republic against the larger forces of the allies. Despite this, Paraguay's natural defenses and its inhabitants' complete submission to the dictator's will meant that it wasn't until 1870, after the republic had been utterly drained of its population and resources, that the long war ended with the capture and death of Lopez along with his last remaining troops by the pursuing Brazilians. Due to its length and the many battles and sieges, the war claimed an enormous number of lives for Brazil, with the army in the field consistently maintained at between 20,000 and 30,000 men, resulting in substantial expenditures that were calculated at over fifty million sterling. This led to large budget deficits for the state, which necessitated increased taxes and loans from foreign countries.

Notwithstanding this the sources of public wealth in Brazil were unaffected, and commerce continued steadily to increase. A grand social reform was effected in the law passed in September 1871, which enacted that from that date every child born of slave parents should be free, and also declared all the slaves belonging to the state or to the imperial household free from that time. The same law provided an emancipation fund, to be annually applied to the ransom of a certain number of slaves owned by private individuals.

Despite this, the sources of public wealth in Brazil remained stable, and commerce kept growing steadily. A major social reform was implemented with the law passed in September 1871, which stated that from that date on, every child born to slave parents would be free, and also declared that all slaves owned by the state or the imperial household would be free from that point forward. The same law also established an emancipation fund, which would be used each year to buy the freedom of a certain number of slaves owned by private individuals.

Under the long reign of Dom Pedro II. progress and material prosperity made steady advancement in Brazil. Occasional political outbreaks occurred, but none of very serious nature except in Rio Grande do Sul, where a long Character of Pedro II.’s reign. guerrilla warfare was carried on against the imperial authority. The emperor occupied himself to a far greater extent with the economic development of his people and country than with active political life. Unostentatious in his habits, Dom Pedro always had at heart the true interests of the Brazilians. Himself a highly-educated man, he sincerely desired to further the cause of education, and devoted a large portion of his time to the study of this question. His extreme liberalism prevented his opposing the spread of Socialist doctrines preached far and wide by Benjamin Constant. Begun about 1880, this propaganda took deep root in the educated classes, creating a desire for change and culminating in the military conspiracy of November 1889, by which monarchy was replaced by a republican form of government.

During the long reign of Dom Pedro II, Brazil experienced steady progress and material prosperity. There were occasional political outbursts, but none were really serious, except in Rio Grande do Sul, where a prolonged guerrilla war was fought against imperial authority. The emperor focused much more on the economic development of his people and country than on active political life. Modest in his habits, Dom Pedro always prioritized the true interests of Brazilians. As a highly educated man, he genuinely wanted to promote education and dedicated a significant amount of his time to studying this issue. His extreme liberalism led him to not oppose the spread of socialist ideas promoted widely by Benjamin Constant. Starting around 1880, this movement took a strong hold among the educated classes, creating a desire for change and culminating in the military conspiracy of November 1889, which transformed the monarchy into a republican government.

At first the revolutionary propaganda produced no personal animosity against the emperor, who continued to be treated by his people with every mark of respect and affection, but this state of things gradually changed. In 1864 the princess Isabella, the eldest daughter of the emperor and empress, had married the Comte d’Eu, a member of the Orleans family. The marriage was never popular in the country, owing partly to the fact that the Comte d’Eu was a reserved man who made few intimate friends and never attempted to become a favourite. Princess Isabella was charitable in many ways, always ready to take her full share of the duties falling upon her as the future empress, and thoroughly realizing the responsibilities of her position; but she was greatly influenced by the clerical party and the priesthood, and she thereby incurred the hostility of the Progressives. When Dom Pedro left Brazil for the purpose of making a tour through Europe and the United States he appointed Princess Isabella to act as regent, and she showed herself so swayed in political questions by Church influence that Liberal feeling became more and more anti-dynastic. Another incident which gave strength to the opposition was the sudden abolition of slavery without any compensation to slave-owners. The planters, the principal possessors of wealth, regarded the measure as unnecessary in view of the act which had been passed in 1885 providing for the gradual freeing of all slaves. The arguments used were, however, of no avail with the regent, and the decree was promulgated on the 13th of May 1888. No active opposition was offered to this measure, but the feelings of unrest and discontent spread rapidly.

At first, the revolutionary propaganda didn’t create any personal hatred toward the emperor, who was still treated with respect and affection by his people, but that started to change over time. In 1864, Princess Isabella, the emperor and empress's eldest daughter, married Comte d’Eu, a member of the Orleans family. This marriage was never well-received in the country, partly because Comte d’Eu was a reserved man who made few close friends and never tried to be a favorite. Princess Isabella was charitable in many ways, always willing to take on her responsibilities as the future empress and fully aware of her duties; however, she was heavily influenced by the clerical party and the priesthood, which led to a backlash from the Progressives. When Dom Pedro left Brazil to tour Europe and the United States, he appointed Princess Isabella as regent, and she became increasingly influenced by the Church in political matters, causing Liberal sentiments to turn more anti-dynastic. Another incident that strengthened the opposition was the abrupt abolition of slavery without any compensation to slave owners. The planters, who were the main holders of wealth, saw this move as unnecessary given the law passed in 1885 that allowed for the gradual freeing of all slaves. However, the arguments fell on deaf ears with the regent, and the decree was issued on May 13, 1888. There was no active opposition to this action, but feelings of unrest and discontent spread quickly.

Towards the close of 1888 the emperor returned and was received by the populace with every demonstration of affection and esteem. Even among the advocates of republicanism there was no intention of dethroning Dom Establishment of the Republic, 1889. Pedro, excepting a few extreme members of the party, now gained the upper hand. They argued that it would be much more difficult to carry out a successful coup d’état when the good-natured, confiding emperor had been succeeded by his more suspicious and energetic daughter. Discontented officers in the army and navy rallied to this idea, and a conspiracy was organized to depose the emperor and declare a republic. On the 14th of November 1889 the palace was quietly surrounded, and on the following morning the emperor and his family were placed on board ship and sent off to Portugal. A provisional government was then formed and a proclamation issued to the effect that the country would henceforth be known as the United States of Brazil, and that in due time a republican constitution would be framed. The only voice raised in protest was that of the minister of war, and he was shot at and severely wounded as a consequence. Dom Pedro, completely broken down by the ingratitude of the people whom he had loved so much and laboured for so strenuously, made no attempt at resistance. The republican government offered to compensate him for the property he had held in Brazil as emperor, but this proposal was declined. His private possessions were respected, and were afterwards still held by Princess Isabella.

Towards the end of 1888, the emperor returned and was welcomed by the public with signs of love and respect. Even among those who supported a republic, there was no real desire to dethrone Dom Pedro, except for a few extreme members of the party, who were now gaining influence. They argued that it would be much harder to successfully execute a coup when the kind-hearted, trusting emperor was replaced by his more suspicious and energetic daughter. Discontented officers in the army and navy supported this idea, and a conspiracy was formed to depose the emperor and establish a republic. On November 14, 1889, the palace was quietly surrounded, and the next morning the emperor and his family were put on a ship and sent off to Portugal. A provisional government was then created, and a proclamation was issued stating that the country would now be called the United States of Brazil, with a republican constitution to be drafted in due time. The only person to protest was the minister of war, who was shot at and seriously injured as a result. Dom Pedro, completely devastated by the ingratitude of the people he had loved and worked for so hard, made no attempt to fight back. The republican government offered to compensate him for the property he owned in Brazil as emperor, but he turned down the offer. His private belongings were respected and later still held by Princess Isabella.

The citizen named as president of the provisional government, was General Deodoro da Fonseca, who owed his advancement to the personal friendship and assistance of Dom Pedro. Second in authority was placed General Floriano Peixoto, an officer also under heavy obligations to the deposed monarch, as indeed were nearly all of those who took active part in the conspiracy.

The citizen appointed as the president of the provisional government was General Deodoro da Fonseca, who owed his rise to power to the personal friendship and support of Dom Pedro. The second-in-command was General Floriano Peixoto, an officer who was also heavily indebted to the ousted monarch, as were almost all of those who actively participated in the conspiracy.

Though the overthrow of the imperial dynasty was totally unexpected throughout, the new regime was accepted without any disturbances. Under the leadership of General Deodoro da Fonseca a praetorian system of government, Brazil under the Republic. in which the military element was all-powerful, came into existence, and continued till February 1891, when a national congress assembled and formulated the constitution for the United States of Brazil. The former provinces were converted into states, the only right of the federal government to interfere in their administration being for the purposes of national defence, the maintenance of public order or the enforcement of the federal laws. The constitution of the United States of America was taken as a model for drawing up that of Brazil, 461 and the general terms were as far as possible adhered to (see above, section Government).

Though the overthrow of the imperial dynasty was completely unexpected, the new regime was accepted without any chaos. Led by General Deodoro da Fonseca, a praetorian system of government emerged, where the military held all the power, and this lasted until February 1891 when a national congress convened and created the constitution for the United States of Brazil. The former provinces became states, with the federal government only allowed to intervene in their administration for national defense, maintaining public order, or enforcing federal laws. The constitution of the United States of America served as a model for Brazil's constitution, and the general terms were followed as closely as possible (see above, section Government).

General da Fonseca and General Floriano Peixoto were elected to fill the offices of president and vice-president until the 15th of November 1894. This implied the continuance of praetorian methods of administration. The older class of more conservative Brazilians, who had formerly taken part in the administration under the emperor, withdrew altogether from public life. Many left Brazil and went into voluntary exile, while others retired to their estates. In the absence of these more respectable elements, the government fell into the hands of a gang of military adventurers and unscrupulous politicians, whose only object was to exploit the national resources for their own benefit. As a consequence, deep-rooted discontent rapidly arose. A conspiracy, of which Admiral Wandenkolk was the prime instigator, was discovered, and those who had taken part in it were banished to the distant state of Amazonas. Disturbances then broke out in Rio Grande do Sul, in consequence of disputes between the official party and the people living in the country districts. Under the leadership of Gumercindo Saraïva the country people broke into open revolt in September 1891. This outbreak was partially suppressed, but afterwards it again burst into flame with great vigour. In view of the discontent, conspiracies and revolutionary movements, President da Fonseca declared himself dictator. This act, however, met with such strong opposition that he resigned office on the 23rd of November 1891, and Vice-President Floriano Peixoto assumed the presidency.

General da Fonseca and General Floriano Peixoto were elected to serve as president and vice-president until November 15, 1894. This meant the continuation of military-style governance. The older, more conservative Brazilians, who had previously been involved in the administration under the emperor, completely withdrew from public life. Many left Brazil for voluntary exile, while others retreated to their estates. Without these more respected figures, the government fell into the hands of a group of military opportunists and dishonest politicians, whose only aim was to exploit the nation’s resources for their own gain. As a result, widespread discontent quickly emerged. A conspiracy, led by Admiral Wandenkolk, was uncovered, and those involved were exiled to the faraway state of Amazonas. Unrest then erupted in Rio Grande do Sul due to conflicts between the ruling party and the rural population. Under the leadership of Gumercindo Saraïva, the rural residents openly revolted in September 1891. This rebellion was partially quelled, but later reignited with significant intensity. In response to the discontent, conspiracies, and revolutionary movements, President da Fonseca declared himself a dictator. However, this move faced such strong resistance that he resigned on November 23, 1891, and Vice-President Floriano Peixoto took over the presidency.

Floriano Peixoto had been accustomed all his life to use harsh measures. For the first year of his term of office he kept seditious attempts in check, but discontent grew apace. Nor was this surprising to those who knew the corruption in the administration. Concessions and subsidies were given broadcast for worthless undertakings in order to benefit the friends of the president. Brazilian credit gave way under the strain, and evidences were not wanting at the beginning of 1893 that an outburst of public opinion was not far distant. Nevertheless President Peixoto made no effort to reform the methods of administration. Meanwhile, the revolution in Rio Grande do Sul had revived; and in July 1893 the federal government was forced to send most of the available regular troops to that state to hold the insurgents in check.

Floriano Peixoto had always relied on tough measures. During his first year in office, he kept rebellious actions in control, but dissatisfaction grew rapidly. Those familiar with the corruption in the government were not surprised. Concessions and subsidies were handed out widely for worthless projects, benefiting the president’s friends. Brazil’s credibility began to crumble, and by early 1893, it was clear that a public outcry was imminent. Still, President Peixoto made no move to change administrative practices. Meanwhile, the revolution in Rio Grande do Sul had reemerged; by July 1893, the federal government had to send most of the available regular troops to that state to keep the insurgents in check.

On the 6th of September prevailing discontent took definite shape in the form of a naval revolt in the Bay of Rio de Janeiro. Admiral Custodio de Mello took command of the naval forces, and demanded the resignation of the president. Naval revolt and civil war, 1893. General Peixoto replied by organizing a defence against any attack from the squadron. Admiral Mello, finding that his demands were not complied with, began a bombardment of the city, but did not effect his purpose of compelling Peixoto to resign. The foreign ministers then arranged a compromise between the contending parties, according to which President Peixoto was to place no artillery in the city, while Admiral Mello was to refrain from bombarding the town, which was thus saved from destruction. Shortly afterwards the cruiser “Republica” and a transport ran the gauntlet of the government forts at the entrance of the bay, and proceeded south to the province of Santa Catharina, taking possession of Desterro, its capital. A provisional government was proclaimed by the insurgents, with headquarters at Desterro, and communication was opened with Gumercindo Saraïva, the leader of the insurrection in Rio Grande do Sul. It was proposed that the army of some 10,000 men under his command should advance northwards towards Rio de Janeiro, while the insurgent squadron threatened the city of Rio. In November Admiral Mello left Rio de Janeiro in the armoured cruiser “Aquidaban” and went to Desterro, the naval forces in Rio Bay being left in charge of Admiral Saldanha da Gama, an ardent monarchist, who had thrown in his lot with the insurgent cause. All was, apparently, going well with the revolt, Saraïva having invaded the states of Santa Catharina and Paraná, and defeated the government troops in several encounters. Meanwhile, President Peixoto had fortified the approaches to the city of Rio de Janeiro, bought vessels of war in Europe and the United States and organized the National Guard.

On September 6th, widespread dissatisfaction manifested as a naval uprising in the Bay of Rio de Janeiro. Admiral Custodio de Mello took charge of the naval forces and demanded the resignation of the president. Naval uprising and civil war, 1893. General Peixoto responded by organizing defenses against any assault from the squadron. When Admiral Mello saw that his demands weren't met, he started bombarding the city, but he couldn't force Peixoto to step down. The foreign ministers then brokered a compromise between the opposing parties, which stipulated that President Peixoto would not place artillery in the city and Admiral Mello would stop the bombardment, thereby saving the town from destruction. Soon after, the cruiser "Republica" and a transport ship managed to navigate past the government forts at the bay's entrance and headed south to the province of Santa Catharina, capturing its capital, Desterro. The insurgents declared a provisional government with headquarters in Desterro, and they established communication with Gumercindo Saraïva, the leader of the uprising in Rio Grande do Sul. It was suggested that his army of about 10,000 men advance north toward Rio de Janeiro while the insurgent squadron threatened the city. In November, Admiral Mello departed Rio de Janeiro on the armored cruiser "Aquidaban" and went to Desterro, leaving the naval forces in Rio Bay under Admiral Saldanha da Gama, a passionate monarchist who had joined the insurgent cause. Everything seemed to be going well for the revolt, as Saraïva had invaded the states of Santa Catharina and Paraná, defeating the government troops in several skirmishes. Meanwhile, President Peixoto fortified the approaches to Rio de Janeiro, acquired war vessels in Europe and the United States, and organized the National Guard.

Early in 1894 dissensions occurred between Saraïva and Mello, which prevented any advance of the insurgent forces, and allowed Peixoto to perfect his plans. Admiral da Gama, unable to leave the Bay of Rio de Janeiro on account of lack of transport for the sick and wounded and the civilians claiming his protection, could do no more than wait for Admiral Mello to return from Desterro. In the meantime the ships bought by President Peixoto arrived off Rio de Janeiro and prevented da Gama from escaping. On the 15th of March 1894 the rebel forces evacuated their positions on the islands of Villegaignon, Cobras and Enxadas, abandoned their vessels, and were received on board two Portuguese warships then in the harbour, whence they were conveyed to Montevideo. The action of the Portuguese commander was prompted by a desire to save life, for had the rebels fallen into the hands of Peixoto, they would assuredly have been executed.

Early in 1894, disagreements arose between Saraïva and Mello, which halted any progress of the rebel forces and allowed Peixoto to refine his strategies. Admiral da Gama, unable to leave the Bay of Rio de Janeiro due to a lack of transport for the sick, wounded, and civilians seeking his protection, could only wait for Admiral Mello to return from Desterro. In the meantime, the ships purchased by President Peixoto arrived near Rio de Janeiro and prevented da Gama from escaping. On March 15, 1894, the rebel forces abandoned their positions on the islands of Villegaignon, Cobras, and Enxadas, left their vessels, and were taken on board two Portuguese warships that were in the harbor, from where they were transported to Montevideo. The actions of the Portuguese commander were motivated by a desire to save lives, as the rebels would have certainly faced execution if captured by Peixoto.

When the news of the surrender of Saldanha da Gama reached Gumercindo Saraïva, then at Curitiba in Paraná, he proceeded to retire to Rio Grande do Sul. Government troops were despatched to intercept his retreat, and in one of the skirmishes which followed Saraïva was killed. The rebel army then dispersed. Admiral Mello made an unsuccessful attack on the town of Rio Grande, and then sailed to Buenos Aires, there surrendering the rebel squadron to the Argentine authorities, by whom it was immediately delivered to the Brazilian government. After six months of civil war peace was once more established, but there still remained some small rebel groups in Rio Grande do Sul. These were joined by Admiral da Gama and a number of the naval officers, who had escaped from Rio de Janeiro; but in June 1895 the admiral was killed in a fight with the government troops. After the cessation of hostilities, the greatest barbarities were practised upon those who, although they had taken no part in the insurrection, were known to have desired the overthrow of President Peixoto. The baron Cerro Azul was shot down without trial; Marshal de Gama Eza, an old imperial soldier of eighty years of age, was murdered in cold blood, and numerous executions of men of lesser note took place, among these being two Frenchmen for whose death the Brazilian government was subsequently called upon to pay heavy compensation.

When the news of Saldanha da Gama's surrender reached Gumercindo Saraïva, who was in Curitiba, Paraná, he decided to retreat to Rio Grande do Sul. Government troops were sent to block his escape, and during one of the skirmishes that followed, Saraïva was killed. The rebel army then scattered. Admiral Mello attempted an unsuccessful attack on the town of Rio Grande, and then sailed to Buenos Aires, where he surrendered the rebel fleet to the Argentine authorities, who immediately handed it over to the Brazilian government. After six months of civil war, peace was finally restored, but there were still some small rebel groups in Rio Grande do Sul. These groups were joined by Admiral da Gama and several naval officers who had escaped from Rio de Janeiro; however, in June 1895, the admiral was killed in a clash with government forces. After the fighting ended, horrific acts were carried out against those who, despite not participating in the uprising, were known to have wanted President Peixoto's downfall. Baron Cerro Azul was executed without trial; Marshal de Gama Eza, an eighty-year-old veteran of the imperial army, was murdered in cold blood, and many others faced executions, including two Frenchmen, for whose deaths the Brazilian government was later required to pay substantial compensation.

General Peixoto was succeeded as president on the 15th of November 1894 by Dr Prudente de Moraes Barros. It was a moot question whether Peixoto, after the revolt was crushed, would not declare himself dictator; certainly many of his friends were anxious that he should follow this course, but he was broken down by the strain which had been imposed upon him and was glad to surrender his duties. He did not recover his health and died shortly afterwards.

General Peixoto was succeeded as president on November 15, 1894, by Dr. Prudente de Moraes Barros. There was a lot of debate about whether Peixoto would declare himself a dictator after the revolt was put down; certainly, many of his supporters wanted him to take this route, but he was worn out from the pressure he had faced and was relieved to hand over his responsibilities. He did not regain his health and died shortly after.

From the first day that he assumed office, President Moraes showed that he intended to suppress praetorian systems and reduce militarism to a minimum. This policy received the approval and sympathy of the majority of Brazilians, but naturally met with bitter opposition from the military element. The president gradually drew to him some members of the better conservative class to assist in his administration, and felt confident that he had the support of public opinion. Early in 1895 murmurings and disorderly conduct against the authorities began to take place in the military school at Rio de Janeiro, which had always been a hotbed of intrigue. Some of the officers and students were promptly expelled, and the president closed the school for several months. This salutary lesson had due effect, and no more discontent was fomented from that quarter. Two great difficulties stood in the way of steering the country to prosperity. The first was the chaotic confusion of the finances resulting from the maladministration of the national resources since the deposition of Dom Pedro II., and the corruption that had crept into every branch of the public service. Much was done by President Moraes to correct abuses, but the task was of too herculean a nature to allow of accomplishment 462 within the four years during which he was at the head of affairs. The second difficulty was the war waged by religious fanatics under the leadership of Antonio Maciel, known as “Conselheiro,” against the constituted authorities of Brazil.

From his first day in office, President Moraes made it clear that he wanted to eliminate praetorian systems and minimize militarism. This approach was welcomed by most Brazilians, but faced strong opposition from the military. The president gradually attracted some members of the more respectable conservative class to support his administration, believing he had public opinion on his side. In early 1895, unrest and disorder among the military school in Rio de Janeiro—traditionally a center of intrigue—began to arise. Some officers and students were quickly expelled, and the president shut down the school for several months. This important lesson had the desired effect, and no further discontent emerged from that source. Two major challenges hindered the country's path to prosperity. The first was the financial chaos resulting from mismanagement of national resources since the overthrow of Dom Pedro II, along with corruption that had seeped into every part of the public service. President Moraes made significant efforts to address these abuses, but the task was too monumental to complete in the four years he led the government. The second challenge was the war waged by religious extremists under the leadership of Antonio Maciel, known as “Conselheiro,” against the established authorities of Brazil.

The story of Conselheiro is a remarkable one. A native of Pernambuco, when a young man he married against the wishes of his mother, who took a violent dislike to the bride. Shortly after the marriage the mother assured her son that his wife held clandestine meetings with a lover, and stated that if he would go to a certain spot not far from the house that evening he would himself see that her assertion was true. The mother invented some plea to send the wife to the trysting-place, and then, dressing herself in male clothing, prepared to come suddenly on the scene as the lover, trusting to be able to make her escape before she was recognized. The three met almost simultaneously. Conselheiro, deeming his worst suspicions confirmed, shot and killed his wife and his mother before explanations could be offered. He was tried and allowed to go at liberty after some detention in prison. From that time Conselheiro was a victim of remorse, and to expiate his sin became a missionary in the sertao or interior of Brazil among the wild Jagunço people. He built places of worship in many different districts, and at length became the recognized chief of the people among whom he had thus strangely cast his lot. Eventually he formed a settlement near Canudos, situated about 400 m. inland from Bahia. Difficulty arose between the governor of Bahia and this fanatical missionary, with the result that Conselheiro was ordered to leave the settlement and take away his people. This order was met with a sturdy refusal to move. Early in 1897 a police force was sent to eject the settlers, but encountered strong resistance, and suffered heavy loss without being able to effect the purpose intended. In March 1897 a body of 1500 troops, with four guns, was despatched to bring the Jagunçoes to reason, but was totally defeated. An army comprising some 5000 officers and men was then sent to crush Conselheiro and his people at all costs. Little progress was made, the country being difficult of access and the Jagunçoes laying ambuscades at every available place. Finally strong reinforcements were sent forward, the minister of war himself proceeding to take command of the army, now numbering nearly 13,000 men. Canudos was besieged and captured in September 1897, Conselheiro being killed in the final assault. The expense of these expeditions was very heavy, and prevented President Moraes from carrying out many of the retrenchments he had planned.

The story of Conselheiro is quite remarkable. A native of Pernambuco, he married a woman against his mother's wishes, who strongly disliked his bride. Soon after the marriage, his mother convinced her son that his wife was secretly meeting with a lover and told him that if he went to a certain spot near their home that evening, he would see for himself that her claims were true. The mother came up with an excuse to send the wife to the meeting place and then dressed in men's clothing, ready to appear as the lover, hoping to escape before being recognized. The three arrived almost at the same time. Conselheiro, believing his worst suspicions were confirmed, shot and killed both his wife and his mother before anyone could explain. He was tried and was allowed to leave after spending some time in prison. From that moment on, Conselheiro was plagued by guilt, and to atone for his sin, he became a missionary in the sertao or the interior of Brazil among the wild Jagunço people. He built places of worship in various areas and eventually became the recognized leader of the community he had joined. Eventually, he established a settlement near Canudos, about 400 miles inland from Bahia. Tensions arose between the governor of Bahia and this devoted missionary, leading to an order for Conselheiro to leave the settlement with his people. He firmly refused to leave. In early 1897, a police force was sent to remove the settlers but faced strong resistance and suffered heavy losses without achieving their goal. In March 1897, a force of 1500 troops with four cannons was sent to reason with the Jagunçoes, but they were completely defeated. An army of about 5000 soldiers was then dispatched to crush Conselheiro and his followers at all costs. Little progress was made due to the difficult terrain and the Jagunçoes setting ambushes at every opportunity. Eventually, strong reinforcements were sent, with the minister of war himself taking command of the army, which now numbered nearly 13,000 men. Canudos was besieged and captured in September 1897, with Conselheiro being killed in the final assault. The cost of these missions was very high and prevented President Moraes from implementing many of the budget cuts he had planned.

Soon after the Canudos affair a conspiracy was hatched to assassinate the president. He was watching the disembarkation of some troops when a shot was fired which narrowly missed him, and killed General Bitencourt, the minister of war. The actual perpetrator of the deed, a soldier, was tried and executed, but he was apparently ignorant of the persons who procured his services. Three other men implicated in the conspiracy were subsequently sentenced to imprisonment for a term of thirty years. The remainder of the presidency of Dr Moraes was uneventful; and on the 15th of November 1898 he was succeeded by Dr Campos Salles, who had previously been governor of the state of São Paulo. President Salles publicly promised political reform, economy in the administration, and absolute respect for civil rights, and speedily made efforts to fulfil these pledges.

Soon after the Canudos incident, a plot was created to assassinate the president. He was watching some troops disembark when a shot was fired that just missed him and killed General Bitencourt, the minister of war. The actual shooter, a soldier, was tried and executed, but he apparently didn’t know who had hired him. Three other men involved in the conspiracy were later sentenced to thirty years in prison. The rest of Dr. Moraes's presidency was uneventful, and on November 15, 1898, he was succeeded by Dr. Campos Salles, who had previously served as governor of the state of São Paulo. President Salles publicly promised political reform, cost-cutting in the administration, and complete respect for civil rights, and quickly took steps to fulfill these commitments.

The difficulties in the reorganization of the finances of the state, which Dr Campos Salles had to face on his accession to power, were very great. The heavy cost involved in the suppression of internal disorders, maladministration, Reform under President Campos Salles. and the hindrances placed in the way of economical development by the semi-independence of the federal states had seriously depreciated the national credit. The president-elect accordingly undertook with the full approval of Dr Moraes, who was still in office, the task of visiting Europe with the object of endeavouring to make an arrangement with the creditors of the state for a temporary suspension of payments. He was successful in his object, and an agreement was made by which bonds should be issued instead of interest payments from the 1st of July 1898, the promise being given that every effort should be made for the resumption of cash payments in 1901. President Campos Salles entered upon his tenure of office on the 15th of November 1898, and at once proceeded to initiate fiscal legislation for the purpose of reducing expenditure and increasing the revenue. He had to face opposition from sectional interests and from the jealousy of interference with their rights on the part of provincial administrations, but he was able to achieve a considerable measure of success and to lay the foundation of a sounder system under which the financial position of the republic has made steady progress. The chief feature of the administration of Dr Campos Salles was the statesmanlike ability with which various disputes with foreign powers on boundary questions were seriously taken in hand and brought to a satisfactory and pacific settlement. There had for a long period been difficulties with France with regard to the territory which lay between the mouth of the Amazon and Cayenne or French Guiana. The language of various treatises was doubtful and ambiguous, largely owing to the ignorance of the diplomatists who drew up the articles of the exact geography of the territory in question. Napoleon had forced the Portuguese government to cede to him the northernmost arm of the mouth of the Amazon as the southern boundary of French Guiana with a large slice of the unexplored interior westwards. A few years later the Portuguese had in their turn conquered French Guiana, but had been compelled to restore it at the peace of Paris. The old ambiguity attaching to the interpretation of earlier treaties, however, remained, and in April 1899 the question by an agreement between the two states was referred to the arbitration of the president of the Swiss confederation. The decision was given in December 1900 and was entirely in favour of the Brazilian contention. A still more interesting boundary dispute was that between Great Britain and Brazil, as to the southern frontier line of British Guiana. The dispute was of very old standing, and the settlement by arbitration in 1899 of the acute misunderstanding between Great Britain and Venezuela regarding the western boundary of British Guiana, and the reference to arbitration in that same year of the Franco-Brazilian dispute, led to an agreement being made in 1901 between Brazil and Great Britain for the submission of their differences to the arbitration of the king of Italy. The district in dispute was the site of the fabled Lake of Parima and the Golden City of Manoa, the search for which in the early days of European settlement attracted so many adventurous expeditions, and which fascinated the imagination of Raleigh and drew him to his doom. The question was a complicated one involving the historical survey of Dutch and Portuguese exploration and control in the far interior of Guiana during two centuries; and it was not until 1904 that the king of Italy gave his award, which was largely in favour of the British claim, and grants to British Guiana access to the northern affluents of the Amazon. Before this decision was given Senhor Rodrigues Alves had been elected president in 1902. Dr Campos Salles had signalized his administration, not only by the settlement of disputes with European powers, but by efforts to arrive at a good understanding with the neighbouring South American republics. In July 1899 President Roca had visited Rio de Janeiro accompanied by an Argentine squadron, this being the first official visit that any South American president had ever paid to one of the adjoining states. In October 1900 Dr Campos Salles returned the visit and met with an excellent reception at Buenos Aires. The result was of importance, as it was known that Brazil was on friendly terms with Chile, and this interchange of courtesies had some effect in bringing about a settlement of the controversy between Chile and Argentina over the Andean frontier question without recourse to hostilities. This was indeed a time when questions concerning boundaries were springing up on every side, for it was only through the moderation with which the high-handed action of Bolivia in regard to the Acré rubber-producing territory was met by the Brazilian government that war was avoided. Negotiations were set on foot, and finally by treating the matter in a give-and-take spirit a settlement was reached and a treaty for an amicable exchange of territories 463 in the district in question, accompanied by a pecuniary indemnity, was signed by President Alves at Petropolis on the 17th of November 1903. During the remainder of the term of this president internal and financial progress were undisturbed save by an outbreak in 1904 in the Cunani district, the very portion of disputed territory which had been assigned to Brazil by the arbitration with France. This province, being difficult of access, was able for a time to assert a practical independence. In 1906 Dr Affonso Penna, three times minister under Pedro II., and at that time governor of the state of Minas-Geraes, of which he had founded the new capital, Bello Horizonte, was elected president, a choice due to a coalition of the other states against São Paulo, to which all the recent presidents had belonged. Penna’s presidency was distinguished by his successful efforts to place the finances on a sound basis. He died in office on the 14th of June 1909.

The challenges in reorganizing the state's finances that Dr. Campos Salles faced upon taking office were significant. The high costs associated with managing internal unrest, poor governance, and obstacles to economic development caused by the semi-independence of federal states had seriously damaged national credit. The president-elect, with the full support of Dr. Moraes, who was still in office, took on the task of traveling to Europe to negotiate with the state's creditors for a temporary suspension of payments. He was successful, reaching an agreement to issue bonds instead of interest payments starting July 1, 1898, with a commitment to strive for resuming cash payments by 1901. President Campos Salles began his term on November 15, 1898, and immediately started fiscal reforms aimed at cutting expenses and boosting revenue. He faced opposition from various interest groups and concerns from provincial administrations over interference with their rights, but he managed to achieve considerable success and laid the groundwork for a more stable financial system that allowed the republic’s financial situation to improve steadily. A standout aspect of Dr. Campos Salles's administration was his skillful handling of boundary disputes with foreign powers, bringing them to satisfactory peaceful resolutions. For a long time, there were issues with France regarding the territory between the mouth of the Amazon and Cayenne or French Guiana. The wording of various treaties was unclear, mainly due to the diplomats' lack of knowledge about the territory's geography. Napoleon had pressured the Portuguese government into ceding the northern most part of the Amazon’s mouth as the southern boundary of French Guiana, along with a large portion of the uncharted interior to the west. A few years later, the Portuguese conquered French Guiana but were forced to return it at the peace of Paris. However, the ambiguity surrounding the interpretation of earlier treaties remained, and the question was submitted to arbitration between the two nations in April 1899, referred to the president of the Swiss Confederation. The ruling, given in December 1900, favored Brazil's claim entirely. An even more intriguing boundary dispute was the one between Great Britain and Brazil regarding the southern border of British Guiana. This dispute had a long history, and the settlement by arbitration in 1899 of the misunderstanding between Great Britain and Venezuela over British Guiana's western boundary, along with the reference to arbitration that same year for the Franco-Brazilian dispute, led to a 1901 agreement between Brazil and Great Britain to submit their differences to the king of Italy for arbitration. The area in question was believed to be the location of the legendary Lake of Parima and the Golden City of Manoa, which attracted many adventurous expeditions during the early European settlement and drew Raleigh to his fate. The issue was complicated, involving a historical examination of Dutch and Portuguese exploration and control in the far reaches of Guiana over two centuries, and it wasn’t until 1904 that the king of Italy made his ruling, which largely supported the British claim and granted British Guiana access to the northern tributaries of the Amazon. Before this decision was made, Senhor Rodrigues Alves was elected president in 1902. Dr. Campos Salles distinguished his administration not only by resolving disputes with European powers but also by working towards better relations with neighboring South American republics. In July 1899, President Roca visited Rio de Janeiro with an Argentine squadron, marking the first official visit by any South American president to a neighboring state. In October 1900, Dr. Campos Salles reciprocated with a warm reception in Buenos Aires. This exchange was significant, as it indicated Brazil's friendly relations with Chile, which helped to resolve the conflict between Chile and Argentina over the Andean boundary issue without resorting to conflict. This was indeed a time when boundary disputes were arising everywhere; it was largely due to the Brazilian government's measured response to Bolivia's aggressive actions regarding the Acre rubber-producing territory that war was avoided. Negotiations were initiated, and through a spirit of compromise, a settlement was achieved. A treaty was signed by President Alves in Petropolis on November 17, 1903, for a friendly exchange of territories in the disputed area, accompanied by a financial indemnity. During the rest of this president's term, internal and financial progress continued smoothly, with the exception of an outbreak in 1904 in the Cunani district, the very area assigned to Brazil by the arbitration with France. This province, being hard to access, was able to maintain a semblance of independence for a time. In 1906, Dr. Affonso Penna, who had served as minister three times under Pedro II and was then governor of the state of Minas Gerais, where he had established the new capital, Belo Horizonte, was elected president due to a coalition of other states against São Paulo, which all the recent presidents had come from. Penna's presidency was noted for his successful work in stabilizing the finances. He died while in office on June 14, 1909.

(K. J.; C. E. A.; G. E.)

Bibliography.—History: Capistrano de Abreu, Descobrimento do Brazil e seu desenvolvimento no seculo xix. (Rio de Janeiro, 1883); John Armitage, History of Brazil from 1808 to 1831 (2 vols., London, 1836); Moreira de Azevedo, Historia do Brazil de 1831 à 1840 (Rio de Janeiro, 1841); V.L. Basil, L’Empire du Brésil (Paris, 1862); Caspar Barlaeus, Rerun per octennium in Brasiliâ ... sub praefecturâ Mauritii Nassovii... historia (Amsterdam, 1647); F.S. Constancio, Historia do Brazil (Pernambuco, 1843); Anfonso Fialho, Historia d’estabelecimento da republica “Estados Unidos do Brazil” (Rio de Janeiro 1890); P. Gaffarel, Histoire du Brésil français (Paris, 1878); E. Grosse, Dom Pedro I. (Leipzig, 1836); E. Levasseur, L’Abolition de I’esclavage en Brésil (Paris, 1888); J.M. de Macedo, Anno biographico brazileiro (3 vols., Rio de Janeiro, 1876); A.J. Mello Moraes, Brazil historico (4 vols., Rio de Janeiro, 1839); Chorographia historica, chronographica genealogica, nobiliaria e politica do Brazil (5 vols., Rio de Janeiro, 1858-1863); A Independencia e o imperio do Brazil (Rio de Janeiro, 1877); B. Mossé, Dom Pedro II., empereur du Brésil (Paris, 1889); P. Netscher, Les Hollandais au Brésil (Hague, 1853); J.M. Pereira da Silva, Varões illustres do Brazil (2 vols., Paris, 1888); Historia da fundação do imperio brazileiro (Rio de Janeiro, 1877); Segundo Periodo do reinado de D. Pedro I. (Paris, 1875); Historia do Brazil de 1831 à 1840 (Rio de Janeiro, 1888); J.P. Oliveira Martins, O Brazil e as colonias Portuguezas (Lisbon, 1888); S. da Rocha Pitta, Historia da America Portugueza (Lisbon, 1730); C. da Silva. L’Oyapock et I’Amazone (2 vols., Paris, 1861); R. Southey, History of Brazil (3 vols., London, 1810-1819); J.B. Spix and C.F. von Martius, Reise in Brasilien, 1817-1820 (3 parts, Munich, 1823-1831); F.A. de Varnhagen, Historia geral do Brazil (2 vols., Rio de Janeiro, 1877); Historia das luctas com os Hollandeses (Vienna, 187:); C.E. Akers, Hist. of South America, 1854-1904 (1904); the Revista trimensal do Instituto Historico e Geographico do Brazil (1839-1908), one or two volumes annually, is a storehouse of papers, studies and original documents bearing on the history of Brazil.

References.—History: Capistrano de Abreu, Discovery of Brazil and its Development in the 19th Century. (Rio de Janeiro, 1883); John Armitage, History of Brazil from 1808 to 1831 (2 vols., London, 1836); Moreira de Azevedo, History of Brazil from 1831 to 1840 (Rio de Janeiro, 1841); V.L. Basil, The Empire of Brazil (Paris, 1862); Caspar Barlaeus, History of Brazil under the Prefecture of Mauritii Nassau (Amsterdam, 1647); F.S. Constancio, History of Brazil (Pernambuco, 1843); Anfonso Fialho, History of the Establishment of the Republic "United States of Brazil" (Rio de Janeiro 1890); P. Gaffarel, History of French Brazil (Paris, 1878); E. Grosse, Dom Pedro I. (Leipzig, 1836); E. Levasseur, The Abolition of Slavery in Brazil (Paris, 1888); J.M. de Macedo, Brazilian Biographical Yearbook (3 vols., Rio de Janeiro, 1876); A.J. Mello Moraes, Historic Brazil (4 vols., Rio de Janeiro, 1839); Historical, Chronological, Genealogical, Noble, and Political Chorography of Brazil (5 vols., Rio de Janeiro, 1858-1863); The Independence and the Empire of Brazil (Rio de Janeiro, 1877); B. Mossé, Dom Pedro II., Emperor of Brazil (Paris, 1889); P. Netscher, The Dutch in Brazil (Hague, 1853); J.M. Pereira da Silva, Illustrious Figures of Brazil (2 vols., Paris, 1888); History of the Foundation of the Brazilian Empire (Rio de Janeiro, 1877); Second Period of the Reign of D. Pedro I. (Paris, 1875); History of Brazil from 1831 to 1840 (Rio de Janeiro, 1888); J.P. Oliveira Martins, Brazil and the Portuguese Colonies (Lisbon, 1888); S. da Rocha Pitta, History of Portuguese America (Lisbon, 1730); C. da Silva. Oyapock and the Amazon (2 vols., Paris, 1861); R. Southey, History of Brazil (3 vols., London, 1810-1819); J.B. Spix and C.F. von Martius, Journey in Brazil, 1817-1820 (3 parts, Munich, 1823-1831); F.A. de Varnhagen, General History of Brazil (2 vols., Rio de Janeiro, 1877); History of the Struggles with the Dutch (Vienna, 187:); C.E. Akers, History of South America, 1854-1904 (1904); the Quarterly Journal of the Historical and Geographic Institute of Brazil (1839-1908), one or two volumes annually, is a treasure trove of papers, studies, and original documents relating to the history of Brazil.

Geography, &c.: Elisée Reclus, Universal Geography (1875-1894), vol. xix. pp. 77-291; J.E. Wappãus, Geographica physica do Brazil (Rio de Janeiro, 1884); A. Moreira Pinto, Chorographia do Brazil (5th ed., Rip de Janeiro, 1895); Therese Prinzessin von Bayern, Meine Reise indenbrasilianischen Tropen (Berlin, 1897); M. Lamberg, Brasilien, Land und Leute (Leipzig, 1899); L. Hutchinson, Report on Trade in Brazil (Washington, 1906); F. Katzer, Grundzüge der Geologie des unteren Amazonegebietes (Leipzig, 1903); J.C. Branner, A Bibliography of the Geology, Mineralogy and Paleontology of Brazil (Rio de Janeiro, 1903); J.W. Evans, “The Rocks of the Cataracts of the River Madeira and the adjoining Portions of the Beni and Mamoré,” Quart. Journ. Geol. Soc., London, vol. lxii., 1906, pp. 88-124, pl. v.

Geography, etc.: Elisée Reclus, Universal Geography (1875-1894), vol. xix. pp. 77-291; J.E. Wappãus, Geographica physica do Brazil (Rio de Janeiro, 1884); A. Moreira Pinto, Chorographia do Brazil (5th ed., Rio de Janeiro, 1895); Therese Prinzessin von Bayern, Meine Reise indenbrasilianischen Tropen (Berlin, 1897); M. Lamberg, Brasilien, Land und Leute (Leipzig, 1899); L. Hutchinson, Report on Trade in Brazil (Washington, 1906); F. Katzer, Grundzüge der Geologie des unteren Amazonegebietes (Leipzig, 1903); J.C. Branner, A Bibliography of the Geology, Mineralogy and Paleontology of Brazil (Rio de Janeiro, 1903); J.W. Evans, “The Rocks of the Cataracts of the River Madeira and the adjoining Portions of the Beni and Mamoré,” Quart. Journ. Geol. Soc., London, vol. lxii., 1906, pp. 88-124, pl. v.


1 The areas are reduced from the planimetrical calculations made at Gotha and used by A. Supan in Die Bevölkerung der Erde (1904). They are corrected to cover all boundary changes to 1906.

1 The areas are based on the area calculations done in Gotha and used by A. Supan in Die Bevölkerung der Erde (1904). They have been updated to account for all boundary changes up to 1906.

2 The census of 1890 is the last one of which complete returns are published. That of 1900 was notoriously inaccurate in many instances.

2 The 1890 census is the last one with complete published results. The 1900 census was known to be inaccurate in many cases.

3 The census returns are for municipalities, and not for cities proper. As a municipality covers a large extent of country, the population given is larger than that of the urban parishes, and is therefore not strictly correct according to European practice.

3 The census results are for municipalities, not just for actual cities. Since a municipality covers a large area, the population count is higher than that of the urban neighborhoods, making it not entirely accurate by European standards.

4 The Brazilian official titles are given for the state capitals: Belem for Pará; São Luiz for Maranhão; São Salvador for Bahia; and Recife for Pernambuco.

4 The official names of the Brazilian state capitals are: Belem for Pará; São Luiz for Maranhão; São Salvador for Bahia; and Recife for Pernambuco.

5 The capital of Minas Geraes in 1890 was Ouro Preto; it has since been transferred to Bello Horizonte, or Cidade de Minas, which has an estimated population of 25,000.

5 The capital of Minas Gerais in 1890 was Ouro Preto; it has since moved to Belo Horizonte, or Cidade de Minas, which has an estimated population of 25,000.

6 Since the naval revolt of 1893-1894 the name of the capital of Santa Catharina has been changed from Desterro to Florianopolis in honour of President Floriano Peixoto.

6 Since the naval revolt of 1893-1894, the capital of Santa Catharina has been renamed from Desterro to Florianopolis in honor of President Floriano Peixoto.

7 The “bran” exported is from imported wheat and cannot be considered a national product.

7 The “bran” that is exported comes from imported wheat and cannot be seen as a domestic product.

8 The “old metals” consist of old iron, brass, &c., derived from railway material, machinery, &c., all imported, and should not be considered a Brazilian product.

8 The "old metals" include old iron, brass, etc., sourced from railway materials, machinery, etc., all imported, and should not be regarded as a Brazilian product.

The “sundry products” would probably be included in the four general classes were the items given.

The "various products" would likely be grouped into the four general categories if the items were specified.

9 Previous to 1907 these two departments were united in one under the designation of “Industry, Communications and Public Works.” The division was decreed December 29, 1906.

9 Before 1907, these two departments were combined into one called “Industry, Communications and Public Works.” The split was announced on December 29, 1906.


BRAZIL, a city and the county-seat of Clay county, Indiana, U.S.A., situated in the west central part of the state, about 16 m. E. of Terre Haute and about 57 m. W.S.W. of Indianapolis. Pop. (1890) 5905; (1900) 7786 (723 foreign-born); (1910) 9340. It is served by the Central Indiana, the Chicago & Eastern Illinois, the Evansville & Indianapolis and the Vandalia railways, and is connected with Indianapolis, Terre Haute and other cities by an interurban electric line. The principal business thoroughfare is part of the old National Road. Brazil’s chief industrial importance is due to its situation in the heart of the “Brazil block” coal (so named because it naturally breaks into almost perfect rectangular blocks) and clay and shale region; among its manufactures are mining machinery and tools, boilers, paving and enamelled building bricks, hollow bricks, tiles, conduits, sewer-pipe and pottery. The municipality owns and operates its water-works. The first settlement here was in 1844; and Brazil was incorporated as a town in 1866, and was chartered as a city in 1873.

BRAZIL, is a city and the county seat of Clay County, Indiana, U.S.A., located in the west-central part of the state, about 16 miles east of Terre Haute and around 57 miles west-southwest of Indianapolis. Population: (1890) 5,905; (1900) 7,786 (723 foreign-born); (1910) 9,340. It is served by the Central Indiana, Chicago & Eastern Illinois, Evansville & Indianapolis, and Vandalia railways, and is connected to Indianapolis, Terre Haute, and other cities by an interurban electric line. The main business street is part of the old National Road. Brazil's main industrial significance comes from its location in the heart of the “Brazil block” coal region (named for its natural tendency to break into nearly perfect rectangular blocks) as well as clay and shale; its manufacturing includes mining machinery and tools, boilers, paving and enamelled building bricks, hollow bricks, tiles, conduits, sewer pipes, and pottery. The city owns and operates its waterworks. The first settlement here was established in 1844; Brazil was incorporated as a town in 1866 and chartered as a city in 1873.


BRAZIL NUTS, the seeds of Bertholletia excelsa, a gigantic tree belonging to the natural order Lecythidaceae, which grows in the valleys of the Amazons and generally throughout tropical America. The tree attains an average height of 130 ft., having a smooth cylindrical trunk, with a diameter of 14 ft. 50 ft. from the ground, and branching at a height of about 100 ft. The lower portion of the trunk presents a buttressed aspect, owing to the upward extension of the roots in the form of thin prop-like walls surrounding the stem. The fruit of the tree is globular, with a diameter of 5 or 6 in., and consists of a thick hard woody shell, within which are closely packed the seeds which constitute the so-called nuts of commerce. The seeds are triangular in form, having a hard woody testa enclosing the “kernel”; and of these each fruit contains from eighteen to twenty-five. The fruits as they ripen fall from their lofty position, and they are at the proper season annually collected and broken open by the Indians. Brazil nuts are largely eaten; they also yield in the proportion of about 9 oz. to each ℔ of kernels a fine bland fluid oil, highly valued for use in cookery, and used by watchmakers and artists.

BRAZIL NUTS, are the seeds of Bertholletia excelsa, a massive tree from the Lecythidaceae family, which grows in the Amazon valleys and generally across tropical America. The tree typically reaches an average height of 130 ft., featuring a smooth cylindrical trunk that measures 14 ft. in diameter 50 ft. above the ground, and branches out at about 100 ft. The lower part of the trunk has a buttressed appearance due to the roots extending upward in thin, prop-like walls that surround the stem. The fruit of the tree is round, with a diameter of 5 to 6 inches, and has a thick, hard wooden shell containing tightly packed seeds, which are the commercial nuts. The seeds are triangular, encased in a hard, woody shell that holds the “kernel”; each fruit contains between eighteen and twenty-five seeds. When ripe, the fruits fall from their high branches, and during the appropriate season, they are collected and cracked open by the Indigenous people. Brazil nuts are eaten widely; they also produce about 9 oz. of a fine, mild oil for each pound of kernels, which is highly valued for cooking and used by watchmakers and artists.


BRAZIL WOOD, a dye wood of commercial importance, obtained from the West Indies and South America, belonging to the genera Caesalpinia and Peltophorum of the natural order Leguminosae. There are several woods of the kind, commercially distinguished as Brazil wood, Nicaragua or Peach wood, Pernambuco wood and Lima wood, each of which has a different commercial value, although the tinctorial principle they yield is similar. Commercial Brazil wood is imported for the use of dyers in billets of large size, and is a dense compact wood of a reddish brown colour, rather bright when freshly cut, but becoming dull on exposure. The colouring-matter of Brazil wood, brazilin, C16H14O5, crystallizes with 1½ H2O, and is freely soluble in water; it is extracted for use by simple infusion or decoction of the coarsely-powdered wood. When freshly prepared the extract is of a yellowish tint; but by contact with the air, or the addition of an alkaline solution, it develops a brick-red colour. This is due to the formation of brazilein, C16H12O5·H2O, which is the colouring matter used by the dyer. Brazilin crystallizes in hexagonal amber yellow crystals, which are soluble in water and alcohol. The solution when free of oxygen is colourless, but on the access of air it assumes first a yellow and thereafter a reddish yellow colour. With soda-ley it takes a brilliant deep carmine tint, which colour may be discharged by heating in a closed vessel with zinc dust, in which condition, the solution is excessively sensitive to oxygen, the slightest exposure to air immediately giving a deep carmine. With tin mordants Brazil wood gives brilliant but fugitive steam reds in calico-printing; but on account of the loose nature of its dyes it is seldom used except as an adjunct to other colours. It is used to form lakes which are employed in tinting papers, staining paper-hangings, and for various other decorative purposes.

BRAZIL WOOD, is a dye wood that is commercially important, sourced from the West Indies and South America. It belongs to the genera Caesalpinia and Peltophorum in the natural order Leguminosae. There are several kinds of wood referred to as Brazil wood, including Nicaragua or Peach wood, Pernambuco wood, and Lima wood, each with different commercial values, though the dyeing principle they produce is similar. Commercial Brazil wood is imported in large billets for use by dyers and is a dense, compact wood with a reddish-brown color that looks bright when freshly cut but dulls upon exposure. The dyeing component of Brazil wood, brazilin, C16H14O5, crystallizes with 1½ H2O and dissolves easily in water; it is extracted by simply infusing or boiling the coarsely powdered wood. When freshly prepared, the extract has a yellowish tint, but when exposed to air or mixed with an alkaline solution, it turns a brick-red color. This is due to the formation of brazilein, C16H12O5·H2O, which is the coloring matter used by dyers. Brazilin crystallizes into hexagonal amber yellow crystals that dissolve in water and alcohol. The solution is colorless when free of oxygen but turns first yellow and then reddish-yellow when exposed to air. With soda-ley, it develops a brilliant deep carmine shade, which can be removed by heating in a closed vessel with zinc dust; in this state, the solution is very sensitive to oxygen, quickly turning deep carmine upon slight exposure to air. When combined with tin mordants, Brazil wood produces bright but fugitive steam reds in calico printing; however, due to the loose nature of its dyes, it is rarely used on its own and is often used as an additive to other colors. It is also used to create lakes that are employed in tinting papers, staining wallpaper, and for various decorative purposes.


BRAZING AND SOLDERING, in metal work, termed respectively hard and soft soldering, are processes which correspond with soldering done at high and at low temperatures. The first embraces jointing effected with soldering mixtures into which copper, brass, or silver largely enter, the second those in which lead and tin are the only, or the principal, constituents. Some metals, as aluminium and cast iron, are less easily soldered than others. Aluminium, owing to its high conductivity, removes the heat from the solder rapidly. Aluminium enters into the composition of most of the solders for these metals, and the “soldering bit” is of pure nickel.

BRAZING AND SOLDERING, in metal work, known as hard and soft soldering, are processes that involve soldering at high and low temperatures, respectively. The first involves joining metals with soldering materials largely made from copper, brass, or silver, while the second involves those where lead and tin are the only or main components. Some metals, like aluminum and cast iron, are more difficult to solder than others. Aluminum, due to its high conductivity, dissipates heat from the solder quickly. Aluminum is included in most solders for these metals, and the “soldering bit” is made of pure nickel.

The hard solders are the spelter and the silver solders. Soft spelter solder is composed of equal parts of copper and zinc, melted and granulated and passed through a sieve. As some of the zinc volatilizes the ultimate proportions are not quite equal. The proportion of zinc is increased if the solder is required to be softer or more fusible. A valuable property of the zinc is that its volatilization indicates the fusing of the solder. Silver solder is used for jewelry and other fine metal work, arid has the advantage of high fusing points. The hardest contains from 4 parts of silver to 1 of copper; the softest 2 of silver to 1 of 464 brass wire. Borax is the flux used, with silver solder as with spelter.

The hard solders are spelter and silver solders. Soft spelter solder is made from equal parts of copper and zinc, which are melted, granulated, and then passed through a sieve. Since some of the zinc evaporates, the final proportions aren’t exactly equal. The amount of zinc is increased if the solder needs to be softer or more fusible. A valuable property of zinc is that its evaporation indicates when the solder is melting. Silver solder is used for jewelry and other fine metalwork, and it has the advantage of high melting points. The hardest silver solder contains 4 parts silver to 1 part copper; the softest has 2 parts silver to 1 part brass wire. Borax is the flux used for both silver solder and spelter.

The soft solders are composed mainly of tin and lead. They occur in a large range. Common tinner’s solder is composed of equal parts of tin and lead, and melts at 370° Fah. Plumber’s solder has 2 of lead to 1 of tin. Excess of lead in plumber’s solder renders the solder difficult to work, excess of tin allows it to melt too easily. Pewterers add bismuth to render the solder more fusible, e.g. lead 4, tin 3, bismuth 2; or lead 1, tin 2, bismuth 1. Unless these are cooled quickly the bismuth separates out.

The soft solders are mainly made up of tin and lead. They come in a wide variety. The typical tinner’s solder is made of equal parts tin and lead, melting at 370° F. Plumber’s solder has a ratio of 2 parts lead to 1 part tin. Too much lead in plumber’s solder makes it hard to work with, while too much tin causes it to melt too easily. Pewterers add bismuth to make the solder melt more easily, for example, a mixture of 4 parts lead, 3 parts tin, and 2 parts bismuth; or 1 part lead, 2 parts tin, and 1 part bismuth. If these are not cooled quickly, the bismuth will separate out.

The essentials of a soldered joint are the contact of absolutely clean surfaces, free from oxide and dirt. The surfaces are therefore scraped, filed and otherwise treated, and then, in order to cleanse and preserve them from any trace of oxide which might form during subsequent manipulation, a fluxing material is used. The soldering material is compelled to follow the areas prepared for it by the flux, and it will not adhere anywhere else. There is much similarity between soldering and welding in this respect. A weld joint must as a rule be fluxed, or metal will not adhere to metal. There is not, however, the absolute need for fluxing that there is in soldered joints, and many welds in good fibrous iron are made without a flux. But the explanation here is that the metal is brought to a temperature of semifusion, and the shapes of joints are generally such that particles of scale are squeezed out from between the joint in the act of closing the weld. But in brazing and soldering the parts to be united are generally nearly cold, and only the soldering material is fused, so that the conditions are less favourable to the removal of oxide than in welding processes.

The key to a good soldered joint is having completely clean surfaces, free from any oxide or dirt. So, the surfaces are scraped, filed, and treated, and then, to ensure they stay free from any oxide that could form during handling, a fluxing agent is applied. The solder is directed to adhere only to the areas that the flux prepared, preventing it from sticking anywhere else. There are many similarities between soldering and welding in this aspect. Typically, a weld joint needs to be fluxed, or else the metal won't bond with the metal. However, there isn't the same absolute necessity for fluxing in welds, and many welds in good fibrous iron are made without it. This difference arises because the metal is heated to a semi-molten state, and the shapes of the joints usually allow scale particles to be pushed out as the weld closes. In contrast, during brazing and soldering, the parts being joined are generally almost cool, with only the solder material melting, creating conditions that are less favorable for removing oxides compared to welding.

Fluxes are either liquid or solid, but the latter are not efficient until they fuse and cover the surfaces to be united. Hydrochloric acid (spirits of salts) is the one used chiefly for soft soldering. It is “killed” by the addition of a little zinc, the resulting chloride of zinc rendering its action quiet. Common fluxes are powdered resin, and tallow (used chiefly by plumbers for wiped joints). These, with others, are employed for soft solder joints, the temperature of which rarely exceeds about 600° Fah. The best flux for zinc is chloride of zinc. For brazed joints, spelter or powdered brass is employed, and the flux is usually borax. The borax will not cover the joint until it has been deprived of its water of crystallization, and this is effected by raising it to a full red heat, when it swells in bulk, “boils,” and afterwards sinks quietly and spreads over, or into the joint. There are differences in details of working. The borax is generally powdered and mixed with the spelter, and both with water. But sometimes they are applied separately, the borax first and over this the particles of spelter. Another flux used for copper is sal ammoniac, either alone or mixed with powdered resin.

Fluxes can be either liquid or solid, but solid ones aren’t effective until they melt and cover the surfaces being joined. Hydrochloric acid (spirits of salts) is mainly used for soft soldering. It’s “killed” by adding a little zinc, which neutralizes its activity due to the formation of zinc chloride. Common fluxes include powdered resin and tallow (which plumbers primarily use for wiped joints). These, along with others, are used for soft solder joints, with temperatures rarely exceeding about 600° Fahrenheit. The best flux for zinc is zinc chloride. For brazed joints, spelter or powdered brass is used, with borax as the typical flux. Borax doesn't coat the joint until its water of crystallization is removed, which is done by heating it to a full red heat. At this point, it swells, “boils,” and then settles down, spreading over or into the joint. There are variations in the working details. Generally, borax is powdered and mixed with the spelter, along with water. However, sometimes they are applied separately, with the borax first and then the particles of spelter on top. Another flux used for copper is sal ammoniac, either on its own or mixed with powdered resin.

As brazed joints often have to be very strong, other precautions are frequently taken beyond that of the mere overlapping of the joint edges. In pipes subjected to high steam pressures, and articles subjected to severe stresses, the joints are “cramped” before the solder is applied. That is, the edges are notched in a manner having somewhat the appearance of the dovetails of the carpenter; the notched portions overlap the opposite edges, and on alternate sides. Such joints when brazed are stronger than plain overlapping joints would be. Steam dome coverings are jointed thus longitudinally as cylinders, and the crown is jointed thereto, also by cramping. Another common method of union is that of flanges to copper pipes. In these the pipe passes freely within a hole bored right through the flange, and the solder is run between. The pipe is suspended vertically, flange downwards, and the spelter run in from the back of the flange. The fused borax works its way in by capillary action, and the spelter follows.

As brazed joints often need to be very strong, additional precautions are usually taken beyond just overlapping the joint edges. In pipes that are exposed to high steam pressures and items that face extreme stresses, the joints are “cramped” before the solder is applied. This means the edges are notched in a way that resembles the dovetails made by a carpenter; the notched sections overlap the opposite edges, alternating sides. Joints made this way, when brazed, are stronger than simple overlapping joints. Steam dome coverings are joined this way longitudinally like cylinders, and the crown is attached using the same cramping method. Another common method of joining is flanges to copper pipes. In this case, the pipe fits freely in a hole drilled straight through the flange, and the solder is applied between them. The pipe is held vertically, flange down, and the spelter is added from the back of the flange. The melted borax seeps in through capillary action, followed by the spelter.

The “copper bit” is used in soft soldering. Its end is a prismatic pyramid of copper, riveted to an iron shank in a wooden handle. It is made hot, and the contained heat is sufficient to melt the solder. It has to be “tinned,” by being heated to a dull red, filed, rubbed with sal ammoniac, and then rubbed upon the solder. It is wiped with tow before use. For small brazed work the blow-pipe is commonly employed; large works are done on the brazier’s hearth, or in any clear coke fire. If coal is used it must be kept away from the joint.

The “copper bit” is used for soft soldering. Its end is a copper pyramidal shape, attached to an iron stick in a wooden handle. It gets heated up, and the heat is enough to melt the solder. It needs to be “tinned” by heating it until it turns a dull red, filing it down, rubbing it with sal ammoniac, and then rubbing it on the solder. It’s wiped with tow before use. For small brazing tasks, a blowpipe is usually used; larger jobs are done on the brazier’s hearth or in a clear coke fire. If coal is used, it must be kept away from the joint.

In “sweating on,” a variation in soldering, the surfaces to be united are cleaned, and solder melted and spread over them. They are then brought together, and the temperature raised sufficiently to melt the solder.

In “sweating on,” a type of soldering, the surfaces that need to be joined are cleaned, and solder is melted and spread over them. They are then pressed together, and the temperature is increased enough to melt the solder.

A detail of first importance is the essential difference between the melting points of the objects to be brazed or soldered, and that of the solder used. The latter must always be lower than the former. This explains why soldering materials are used in a large range of temperatures. A few will melt at the temperature of boiling water. At the other extreme 2000° Fah. is required to melt a solder for brazing. If this point is neglected, it will often happen that the object to be soldered will fuse before the solder melts. This accident may occur in the soft Britannia and white metals at the one extreme, and in the softer brasses at the other. It would not do, for example, to use flanges of common brass, or even ordinary gun-metal, to be brazed to copper pipe, for they would begin to fuse before the joint was made. Such flanges must be made of nearly pure copper, to withstand the temperature, usually 98 of copper to 2 of tin (brazing metal). A most valuable feature in solder is that by varying the proportions of the metals used a great range in hardness and fusibility is obtainable. The useful solders therefore number many scores. This is also a source of danger, unless regard be had to the relative fusing points of solders, and of the parts they unite.

A key detail to understand is the significant difference between the melting points of the items being brazed or soldered and the melting point of the solder being used. The solder’s melting point must always be lower than that of the other materials. This is why soldering materials can be used across such a wide range of temperatures. Some solders will melt at the temperature of boiling water, while others require around 2000°F for brazing. If this is overlooked, the item being soldered may melt before the solder even starts to liquefy. This can happen with softer materials like Britannia and white metals, as well as with softer brasses. For instance, you wouldn’t want to use standard brass flanges or even regular gun-metal to braze onto copper pipes, since they would start to melt before the joint was completed. Those flanges need to be made from nearly pure copper to handle the heat, typically 98 parts copper to 2 parts tin (brazing metal). Another valuable aspect of solder is that by adjusting the proportions of the metals used, a wide range of hardness and fusibility can be achieved. There are therefore many useful types of solders available. However, this also poses a risk if the melting points of the solders and the materials they connect are not taken into account.

(J. G. H.)

BRAZZA, PIERRE PAUL FRANÇOIS CAMILLE SAVORGNAN DE, Count (1852-1905), French explorer and administrator, founder of French Congo, was born on board ship in the harbour of Rio de Janeiro on the 26th of January 1852. He was of Italian parentage, the family name being de Brazza Savorgnani. Through the instrumentality of the astronomer Secchi he was sent to the Jesuit college in Paris, and in 1868 obtained authorization to enter as a foreigner the marine college at Brest. In the Franco-Prussian War of 1870-71 he took part in the operations of the French fleet. In 1874 when the warship on which he was serving was in the Gabun, Alfred Marche and the marquis de Compiègne arrived at Libreville from an expedition in the lower Ogowé district. Interested in the reports of these travellers, de Brazza conceived the idea of exploring the Ogowé, which he thought might prove to be the lower course of the Lualaba, a river then recently discovered by David Livingstone. Having meantime been naturalized as a Frenchman, de Brazza in 1875 obtained permission to undertake his African scheme, and with the naval doctor, Noel Ballay, he explored the Ogowé river. Penetrating beyond the basin of that river, he discovered the Alima and Likona, but did not descend either stream. Thence turning northwards the travellers eventually regained the coast at the end of November 1878, having left Paris in August 1875. On arrival in Paris, de Brazza learned of the navigation of the Congo by H.M. Stanley, and recognized that the rivers he had discovered were affluents of that stream.

BRAZZA, PIERRE PAUL FRANÇOIS CAMILLE SAVORGNAN DE, Count (1852-1905), was a French explorer and administrator, and the founder of French Congo. He was born on a ship in the harbor of Rio de Janeiro on January 26, 1852. He came from Italian heritage, and his family name was de Brazza Savorgnani. Thanks to the astronomer Secchi, he was sent to a Jesuit college in Paris, and in 1868, he was allowed to enroll as a foreigner at the marine college in Brest. During the Franco-Prussian War of 1870-71, he participated in the actions of the French fleet. In 1874, while serving on a warship in Gabun, he met Alfred Marche and the marquis de Compiègne, who had just returned from an expedition in the lower Ogowé region. Interested in their findings, de Brazza got the idea to explore the Ogowé, which he thought might be the lower stretch of the Lualaba, a river that David Livingstone had recently discovered. Having become a naturalized French citizen, de Brazza received permission in 1875 to pursue his African project, and he explored the Ogowé River with naval doctor Noel Ballay. Pushing beyond the river's basin, he discovered the Alima and Likona but did not navigate either river. Turning north, the travelers eventually reached the coast by the end of November 1878, after leaving Paris in August 1875. Once back in Paris, de Brazza learned that H.M. Stanley had navigated the Congo and realized that the rivers he had found were tributaries of that river.

De Brazza was anxious to obtain for France some part of the Congo. The French ministry, however, determined to utilize his energies in another quarter of Africa. Their attention had been drawn to the Niger through the formation of the United African Company by Sir George Goldie (then Mr Goldie Taubman) in July 1879, Goldie’s object being to secure Nigeria for Great Britain. A new expedition was fitted out, and de Brazza left Paris at the end of 1879 with orders to go to the Niger, make treaties, and plant French flags. When on the point of sailing; from Lisbon he received a telegram cancelling these instructions, and altering his destination to the Congo. This was a decision of great moment. Had the Nigerian policy of France been maintained the International African Association (afterwards the Congo Free State) would have had a clear field on the Congo, while the young British Company would have been crushed out by French opposition; so that the two great basins of the Niger and the Congo would have had a vastly different history.

De Brazza was eager to secure a part of the Congo for France. However, the French government decided to harness his efforts in a different area of Africa. They were focused on the Niger due to the establishment of the United African Company by Sir George Goldie (then Mr. Goldie Taubman) in July 1879, whose goal was to claim Nigeria for Great Britain. A new expedition was organized, and de Brazza left Paris at the end of 1879 with orders to head to the Niger, make treaties, and set up French flags. Just as he was about to sail from Lisbon, he received a telegram canceling those instructions and changing his destination to the Congo. This decision was significant. If France had maintained its Nigerian policy, the International African Association (later the Congo Free State) would have had an unchallenged position in the Congo, while the emerging British Company would have been eliminated by French competition, resulting in a vastly different history for the two major river basins of the Niger and the Congo.

Acting on his new instructions, de Brazza, who was again 465 accompanied by Ballay, reached the Gabun early in 1880. Rapidly ascending the Ogowé he founded the station of Franceville on the upper waters of that river and pushed on to the Congo at Stanley Pool, where Brazzaville was subsequently founded. With Makoko, chief of the Bateke tribe, de Brazza concluded treaties in September and October 1880, placing the country under French protection. With these treaties in his possession Brazza proceeded down the Congo, and at Isangila on the 7th of November met Stanley, who was working his way up stream concluding treaties with the chiefs on behalf of the International African Association. De Brazza spent the next eighteen months exploring the hinterland of the Gabun, and returned to France in June 1882. The ratification by the French chambers in the following November of the treaties with Makoko (described by Stanley as worthless pieces of paper) committed France to the action of her agent.

Acting on his new orders, de Brazza, who was once again 465 accompanied by Ballay, arrived in Gabun early in 1880. Quickly moving up the Ogowé River, he established the Franceville station on the upper reaches of that river and continued on to the Congo at Stanley Pool, where Brazzaville was later founded. In September and October 1880, he made agreements with Makoko, the chief of the Bateke tribe, placing the area under French protection. With these agreements in hand, de Brazza traveled down the Congo and met Stanley at Isangila on November 7, who was going upstream making deals with local chiefs on behalf of the International African Association. De Brazza spent the next eighteen months exploring the interior of Gabun and returned to France in June 1882. The French chambers ratified the treaties with Makoko in the following November (which Stanley described as worthless pieces of paper), committing France to the actions of her agent.

Furnished with funds by the French government, de Brazza returned in 1883 to the Congo to open up the new colony, of which he was named commissioner-general in 1886. This post he held until January 1898, when he was recalled. During his period of office the work of exploration was systematically carried out by numerous expeditions which he organized. The incessant demands on the resources of the infant colony for these and other expeditions to the far interior greatly retarded its progress. De Brazza’s administration was severely criticized; but that its comparative failure was largely due to inadequate support from the home authorities was recognized in the grant to him in 1902 of a pension by the chambers. Both as explorer and administrator his dealings with the natives were marked by consideration, kindness and patience, and he earned the title of “Father of the Slaves.” His efforts to connect the upper Congo with the Atlantic by a railway through French territory showed that he understood the chief economic needs of the colony. After seven years of retirement in France de Brazza accepted, in February 1905, a mission to investigate charges of cruelty to natives brought against officials of the Congo colony. Having concluded his inquiry he sailed for France, but died at Dakar, Senegal, on the 4th of September 1905. His body was taken to Paris for burial, but in 1908 was reinterred at Algiers.

Furnished with funding from the French government, de Brazza returned in 1883 to the Congo to establish the new colony, where he was appointed commissioner-general in 1886. He held this position until January 1898, when he was recalled. During his time in office, exploration was systematically carried out through various expeditions he organized. The constant demands on the resources of the fledgling colony for these and other missions into the interior significantly slowed its progress. De Brazza’s administration faced heavy criticism; however, it was acknowledged that its relative failure was largely due to insufficient support from the home authorities, which was recognized in 1902 with the granting of a pension by the chambers. As both an explorer and administrator, his interactions with the locals were characterized by thoughtfulness, kindness, and patience, earning him the title "Father of the Slaves." His efforts to connect the upper Congo with the Atlantic by building a railway through French territory demonstrated his understanding of the colony's main economic needs. After seven years of retirement in France, de Brazza accepted, in February 1905, a mission to investigate allegations of cruelty towards natives made against officials of the Congo colony. After completing his inquiry, he sailed back to France but died in Dakar, Senegal, on September 4, 1905. His body was initially taken to Paris for burial but was reinterred in Algiers in 1908.

See D. Neuville et Ch. Bréard, Les Voyages de Savorgnan de Brazza, Ogooué et Congo, 1875-1882 (Paris, 1884), and Conférences et lettres de P. Savorgnan de Brazza sur ses trois explorations dans l’ouest africain de 1875 à 1886 (Paris, 1887); A.J. Wauters, “Savorgnan de Brazza et la conquête du Congo français,” in Le Mouvement geographique, vol. xxii., No. 39 (Brussels, 1905). Giacomo or Jacques de Brazza (1859-1883), a younger brother of Savorgnan, and one of the men he employed in the work of exploration, published in collaboration with his companion A. Pecile, Tre Anni e mezzo nella regione del Congo e dell’ Ogowe (Rome, 1887).

See D. Neuville and Ch. Bréard, The Travels of Savorgnan de Brazza, Ogooué and Congo, 1875-1882 (Paris, 1884), and Conferences and Letters of P. Savorgnan de Brazza on His Three Explorations in West Africa from 1875 to 1886 (Paris, 1887); A.J. Wauters, “Savorgnan de Brazza and the Conquest of French Congo,” in The Geographical Movement, vol. xxii., No. 39 (Brussels, 1905). Giacomo or Jacques de Brazza (1859-1883), a younger brother of Savorgnan, and one of the men he hired for exploration, published in collaboration with his partner A. Pecile, Three and a Half Years in the Congo and Ogooué Region (Rome, 1887).

(G. T. G.)

BRAZZA (Serbo-Croatian, Brač; Lat. Brattia), an island in the Adriatic Sea, forming part of Dalmatia, Austria. Pop. (1900) 24,408. With an area of 170 sq. m. Brazza is the largest of the Dalmatian Islands; it is also the most thickly populated, and one of the most fertile. Its closely cultivated surface though ragged and mountainous yields an abundance of olives, figs, almonds and saffron, while its wines are of good quality. The corn-crop, however, barely suffices for three months’ food. Other local industries are fishing and silkworm-rearing. The most important among twenty small villages on the island is Milná (pop. 2579), a steamship station, provided with shipwrights’ wharves. The early history of Brazza is obscure. In the first years of the 13th century it was ruled by the piratical counts of Almissa; but after a successful revolt and a brief period of liberty it came under the dominion of Hungary. From 1413 to 1416 it was subject to Ragusa; and in 1420 it passed, with the greater part of Dalmatia, under Venetian sovereignty.

BRAZZA (Serbo-Croatian, Brač; Lat. Brattia), an island in the Adriatic Sea, part of Dalmatia, Austria. Pop. (1900) 24,408. With an area of 170 sq. m., Brazza is the largest of the Dalmatian Islands; it is also the most densely populated and one of the most fertile. Its rugged and mountainous terrain, while heavily cultivated, produces a lot of olives, figs, almonds, and saffron, and its wines are of good quality. However, the corn harvest barely provides enough food for three months. Other local industries include fishing and silkworm farming. The most important of the twenty small villages on the island is Milná (pop. 2579), a steamship station with shipbuilding wharves. The early history of Brazza is unclear. In the early years of the 13th century, it was ruled by the piratical counts of Almissa; but after a successful revolt and a short period of freedom, it came under the control of Hungary. From 1413 to 1416, it was governed by Ragusa; and in 1420, it passed, along with most of Dalmatia, under Venetian rule.


BREACH (Mid. Eng. breche, derived from the common Teutonic root brec, which appears in “break,” Ger. brechen, &c.), in general, a breaking, or an opening made by breaking; in law, the infringement of a right or the violation of an obligation or duty. The word is used in various phrases: breach of close, the unlawful entry upon another person’s land (see Trespass); breach of covenant or contract, the non-fulfilment of an agreement either to do or not to do some act (see Damages); breach of the peace, a disturbance of the public order (see Peace, Breach of); breach of pound, the taking by force out of a pound things lawfully impounded (see Pound); breach of promise of marriage, the non-fulfilment of a contract mutually entered into by a man and a woman that they will marry each other (see Marriage); breach of trust, any deviation by a trustee from the duty imposed upon him by the instrument creating the trust (q.v.).

BREACH (Mid. Eng. breche, derived from the common Teutonic root brec, which is also found in “break,” Ger. brechen, etc.), generally refers to a breaking or an opening made by breaking; in legal terms, it means the infringement of a right or the violation of an obligation or duty. The word is used in several contexts: breach of close, which is the illegal entry onto someone else's land (see Trespass); breach of covenant or contract, meaning the failure to fulfill an agreement to either do or refrain from doing something (see Damages); breach of the peace, referring to a disruption of public order (see Peace, Breach of); breach of pound, which involves the forcible removal of items lawfully impounded (see Pound); breach of promise of marriage, meaning the failure to uphold a mutual agreement between a man and a woman to marry (see Marriage); breach of trust, referring to any deviation from the duties expected of a trustee as specified by the trust document (q.v).


BREAD, the name given to the staple food-product prepared by the baking of flour. The word itself, O. Eng. bréad, is common in various forms to many Teutonic languages; cf. Ger. Brot, Dutch, brood, and Swed. and Dan. bröt; it has been derived from the root of “brew,” but more probably is connected with the root of “break,” for its early uses are confined to “broken pieces, or bits” of bread, the Lat. frustum, and it was not till the 12th century that it took the place, as the generic name of bread, of hlaf, “loaf,” which appears to be the oldest Teutonic name, cf. Old High Ger. hleib, and modern Ger. Laib.

BREAD, is the name for the essential food product made by baking flour. The term itself, O. Eng. bréad, appears in different forms across many Germanic languages; for example, Ger. Brot, Dutch brood, and Swed. and Dan. bröt. It comes from the root of “brew,” but is more likely linked to the root of “break,” since its early meanings relate to “broken pieces, or bits” of bread, akin to the Latin frustum. It wasn't until the 12th century that it replaced hlaf, meaning “loaf,” as the general term for bread, which seems to be the oldest Germanic name, as seen in Old High Ger. hleib, and modern Ger. Laib.

History.—Bread-baking, or at any rate the preparation of cakes from flour or parched grain by means of heat, is one of the most ancient of human arts. At Wangen and Robenhausen have been found the calcined remains of cakes made from coarsely-ground grain in Swiss lake-dwellings that date back to the Stone Age. The cakes were made of different kinds of grain, barley and one-grained wheat (Triticum monococcum) being among the ingredients. This bread was made, not from fine meal, but from grain crushed between some hard surfaces, and in these lake-dwellings many round-shaped stones have been found, which were evidently used for pounding or crushing grain against the surface, more or less concave, of another stone (see Flour and Flour Manufacture). Perhaps the earliest form of bread, if that word may be used, was prepared from acorns and beech nuts. To this day a sort of cake prepared from crushed acorns is eaten by the Indians of the Pacific slopes. The flour extracted from acorns is bitter and unfit to eat till it has been thoroughly soaked in boiling water. The saturated flour is squeezed into a kind of cake and dried in the sun. Pliny speaks of a similar crude process in connexion with wheat; the grain was evidently pounded, and the crushed remnant, soaked into a sort of pulp, then made into a cake and dried in the sun. Virgil (Georgics, i. 267) refers to the husbandman first torrefying and then crushing his grain between stones:—”Nunc torrete igni fruges, nunc frangite saxo.

History.—Bread-baking, or at least the making of cakes from flour or roasted grain using heat, is one of the oldest human crafts. In Wangen and Robenhausen, scientists have found charred remains of cakes made from coarsely-ground grain in Swiss lake-dwellings that go back to the Stone Age. These cakes were made from various grains, including barley and one-grained wheat (Triticum monococcum). This bread wasn't made from fine flour, but from grain crushed between hard surfaces, and in these lake-dwellings, many round stones have been discovered, which were clearly used for pounding or crushing grain against the more or less concave surface of another stone (see Flour and Flour Manufacture). The earliest form of bread, if that's the right term, may have been made from acorns and beech nuts. Even today, a type of cake made from crushed acorns is consumed by the Native Americans of the Pacific coast. The flour from acorns is bitter and not edible until it has been soaked in boiling water. After soaking, the flour is squeezed into a kind of cake and then dried in the sun. Pliny mentions a similar primitive process involving wheat; the grain was likely pounded, and the crushed material was soaked to form a kind of pulp, then turned into a cake and dried in the sun. Virgil (Georgics, i. 267) talks about the farmer first roasting and then crushing his grain:—”Nunc torrete igni fruges, nunc frangite saxo.

The question naturally arises, how did the lake-dwellers bake their cakes of bruised grain? Probably the dough was laid on a flat or convex-shaped stone, which was heated, while the cake was covered with hot ashes. Stones have been found among prehistoric remains which were apparently used for this purpose. In ancient Egyptian tombs cakes of durra have been found, of concave shape, suggesting the use of such baking-slabs; here the cake was evidently prepared from coarsely-cracked grain. In primitive times milling and baking were twin arts. The housewife, and the daughters or handmaids, crushed or ground the grain and prepared the bread or cakes. When Abraham entertained the angels unawares (Genesis xviii.) he bade his wife Sarah “make ready quickly three measures of fine meal, knead it, and make cakes upon the hearth.” Professor Maspero says that an oven for baking bread was to be found in the courtyard of every house in Chaldaea; close by were kept the grinding stones. That bread prepared by means of leaven was known in the days of the patriarchs may be fairly inferred from the passage in Genesis ML, where it is said of Lot that he “made a feast, and did bake unleavened bread.” Whether the shew-bread of the Jewish tabernacle was leavened is an open question, but it is significant that the Passover cakes eaten by Jews to-day, known as Matzos, are innocent of leaven. Made from flour and water only, they are about 12 in. in diameter, and have somewhat the look of water biscuits.

The question naturally arises, how did the lake-dwellers bake their cakes of bruised grain? Probably, they laid the dough on a flat or curved stone that was heated, while covering the cake with hot ashes. Stones have been found among prehistoric remains that were apparently used for this purpose. In ancient Egyptian tombs, cakes made from durra have been discovered, shaped concavely, suggesting the use of such baking stones; the cake was evidently made from coarsely cracked grain. In primitive times, milling and baking were closely linked. The housewife, along with her daughters or servants, crushed or ground the grain and prepared the bread or cakes. When Abraham unknowingly hosted the angels (Genesis xviii), he told his wife Sarah to “hurry and prepare three measures of fine meal, knead it, and make cakes on the hearth.” Professor Maspero states that every house in Chaldaea had an oven for baking bread in its courtyard, with grinding stones kept nearby. It can be reasonably inferred that bread made with leaven was known during the time of the patriarchs, as indicated in Genesis ML, where it mentions that Lot “made a feast, and baked unleavened bread.” Whether the showbread in the Jewish tabernacle was leavened is still debated, but it’s noteworthy that the Passover cakes eaten by Jews today, known as Matzos, are made without leaven. Made from just flour and water, they measure about 12 inches in diameter and resemble water biscuits.

The ancient Egyptians carried the art of baking to high perfection. Herodotus remarks of them, “dough they knead with their feet, but clay with their hands.” The practice of using the feet for dough kneading, however repulsive, long persisted in Scotland, if indeed it is yet defunct. The Egyptians 466 used for their bread, wheat, spelt, barley and durra (sorghum). In the opinion of Dr Wallis Budge, barley was in Egypt the grain of most primitive culture. However that may be, it is certain that even in ancient Egypt white bread made from wheat was used by the rich. The form of the bread is revealed by ancient monuments. A common shape was a small, round loaf, something like the muffin of to-day. Other loaves were elongated rolls, and curiously enough were sprinkled on the top with seeds like modern Vienna bread.

The ancient Egyptians perfected the art of baking. Herodotus noted that “they knead dough with their feet, but clay with their hands.” The use of feet for kneading dough, though unappealing, lingered in Scotland and may still be in use today. The Egyptians used wheat, spelt, barley, and durra (sorghum) for their bread. Dr. Wallis Budge believes that barley was the primary grain in Egypt’s earliest cultures. Regardless, it's clear that even in ancient Egypt, wealthy people enjoyed white bread made from wheat. The shapes of the bread are depicted in ancient monuments. A common form was a small, round loaf, similar to today's muffin. Other loaves were longer rolls that were interestingly topped with seeds like modern Vienna bread.

The history of baking in classical Greece and Italy can be clearly traced. Athenaeus in his Deipnosophists minutely describes many different kinds of bread, which may be assumed to have been currently used in Greece. According to Pliny (Nat. Hist, xviii. II. § 28) Rome had no public bakers till after the war with Perseus (171-168 B.C.). That long after public bakehouses came into use the Romans and other urban dwellers in Italy continued to make a great deal of bread at home is certain. In Pompeii several private houses had their own mill and bakehouse. That city must also have possessed bakers by trade, as loaves of bread have been found, round in form, and stamped with the maker’s name, possibly to fix responsibility for weight and purity. In the time of the Republic, public bakehouses were under the control of the aediles. Grain was delivered to the public granaries by the Saccarii, while another body called Catabolenses distributed the grain to the bakers. The latter were known as Pistores or “pounders,” a reminiscence no doubt of the primitive time when grain was pounded by a pestle in a mortar. Slaves were largely employed in the irksome work of grinding, and when Constantine abolished slavery the staff of the pistrinae was largely recruited from criminals. The emperor Trajan incorporated about A.D. 100 the college of Pistores (millers and bakers), but its members were employers, not operatives. The work of a bakery is depicted in a set of bas-reliefs on the tomb of a master Pistor named Eurysaces, who flourished about a century before the foundation of the college. Here the grain is being brought and paid for; mills driven by horse and ass (or mule) power are busy; men are sieving out the bran from the flour by hand (bolters); bakers are moulding loaves on a board; an oven of domelike shape is being charged by means of a shovel (peel); and baskets of bread are being weighed on the one hand and carried off on men’s backs on the other.

The history of baking in ancient Greece and Italy is well-documented. Athenaeus in his Deipnosophists thoroughly describes many different types of bread that were likely popular in Greece. According to Pliny (Nat. Hist, xviii. II. § 28), Rome didn't have public bakers until after the war with Perseus (171-168 BCE). Even after public bakehouses were established, it's clear that Romans and other city dwellers in Italy continued to bake a lot of bread at home. In Pompeii, many private homes had their own mill and bakehouse. That city must have had professional bakers, as round loaves of bread have been discovered, stamped with the maker's name, likely to ensure accountability for weight and quality. During the Republic, public bakehouses were overseen by the aediles. Grain was delivered to public granaries by the Saccarii, while another group called Catabolenses distributed the grain to the bakers. The bakers were known as Pistores or "pounders," a name that likely harks back to the early days when grain was pounded with a pestle in a mortar. Slaves were commonly used for the labor-intensive grinding work, and when Constantine ended slavery, many workers in the pistrinae were recruited from criminals. Emperor Trajan established the college of Pistores (millers and bakers) around CE 100, but its members were employers, not workers. The process of baking is illustrated in a series of bas-reliefs on the tomb of a master Pistor named Eurysaces, who lived about a century before the college was founded. The scenes show grain being brought and paid for; mills powered by horses or mules in operation; men manually sifting bran from flour (bolters); bakers shaping loaves on a board; a domed oven being loaded with a shovel (peel); and baskets of bread being weighed and carried on men's backs.

Regulation of Sale.—In the middle ages bakers were subjected to special regulations in all European lands. These regulations were supposed to be conceived in the interests of bread consumers, and no doubt were intended to secure fair dealing on the part of bread vendors. The legislators appear, however, to have been unduly biased against the baker, who was often beset by harassing restrictions. Bakers were formed into gilds, which were under the control, not only of their own officials, but of the municipality. In London the bakers formed a brotherhood as early as 1155, and were incorporated in 1307. There were two distinct corporate bodies concerned with bread-making, the Company of White Bakers and the Company of Brown Bakers; these were nominally united in 1509, but the union did not become complete till the middle of the 17th century. In Austria, bakers who offended against police regulations respecting the sale of bread were liable, until comparatively recent times, to fine, imprisonment and even corporal punishment. In Turkey the lot of the baker was very hard. Baron de Tott, writing of Constantinople in the 18th century, says that it was usual, when bread went to famine prices, to hang a baker or two. He would have us believe that it was the custom of master bakers to keep a second hand, who, in consideration of a small increase of his weekly wage, was willing to appear before the cadi in case a victim were wanted. A barbarous punishment, inflicted in Turkey and in Egypt on bakers who sold light or adulterated bread, consisted in nailing the culprit by his ear to the door-post of his shop. In France a decree of 1863 relieved bakers from many of the restrictions under which they previously suffered, but it did not touch the powers of the municipalities to regulate the quality and sale of bread. It left them the right conferred in 1791, to enforce the taxe du pain, the object of which was to prevent bakers from increasing the price of bread beyond a point justified by the price of the raw materials; but the right was exercised on their own responsibility, subject to appeal to higher authorities, and by a circular issued in 1863 they were invited to abolish this taxe officielle. In places where it exists it is fixed every week or fortnight, according to the average price of grain in the local markets.

Regulation of Sale.—In the Middle Ages, bakers were subject to special regulations across all European countries. These rules were meant to protect bread consumers and were likely intended to ensure fair practices among bread sellers. However, lawmakers seemed to be overly biased against bakers, who were often burdened with numerous annoying restrictions. Bakers were organized into guilds that were controlled not just by their own leaders, but also by the local government. In London, bakers formed a brotherhood as early as 1155 and were officially recognized in 1307. There were two separate organizations involved in bread-making: the Company of White Bakers and the Company of Brown Bakers. These groups were nominally combined in 1509, but the merger didn’t fully take place until the mid-17th century. In Austria, bakers who broke police regulations regarding bread sales could be fined, imprisoned, or even subjected to corporal punishment until relatively recent times. In Turkey, bakers faced harsh treatment. Baron de Tott, writing about Constantinople in the 18th century, mentions that during bread famines, it was common to hang one or two bakers. He suggested that master bakers would keep a backup employee who, for a small raise, would be willing to stand in front of the cadi if a scapegoat was needed. A cruel punishment in Turkey and Egypt for bakers who sold light or adulterated bread involved nailing the offender by their ear to the door of their shop. In France, a decree in 1863 lifted many of the restrictions previously placed on bakers, but it did not eliminate local governments' power to regulate the quality and sale of bread. They maintained the right, established in 1791, to enforce the taxe du pain, aimed at preventing bakers from raising bread prices beyond what was reasonable based on raw material costs; however, this right was exercised at their own discretion, with the option to appeal to higher authorities. A circular issued in 1863 encouraged them to abolish this taxe officielle. In places where it still exists, it is adjusted weekly or biweekly based on the average grain prices in local markets.

In England an act of parliament was passed in 1266 for regulating the price of bread by a public assize, and that system continued in operation till 1822 in the case of the city of London, and till 1836 for the rest of the country. The price of bread was determined by adding a certain sum to the price of every quarter of flour, to cover the baker’s expenses and profit; and for the sum so arrived at tradesmen were required to bake and sell eighty quartern loaves or a like proportion of other sizes, which it was reckoned each quarter of flour ought to yield. The acts now regulating the manufacture and sale of bread in Great Britain are one of 1822 (Sale of Bread in the City of London and within 10 m. of the Royal Exchange), and the Bread Act of 1836, as to sale of bread beyond 10 m. of the Royal Exchange. The acts require that bread shall be sold by weight, and in no other manner, under a penalty not exceeding forty shillings. This does not, however, mean that a seller is bound to sell at any particular weight; the words quartern and half-quartern, though commonly used and taken to indicate a 4-℔ and 2-℔ loaf respectively, have no legal sanction. That is to say, a baker is not bound to sell a loaf weighing either 4 ℔ or 2; all he has to do, when a customer asks for a loaf, is to put one on the scale, weigh it, and declare the weight. When bread is sold over the counter it is usual for the vendor to cut off and tender a piece of bread to make up any deficiency in the loaf. This is known as the “overweight.” There is little doubt the somewhat misty wording of the bread acts lends itself to a good deal of fraudulent dealing. For instance, when bread is sold over the counter, two loaves may be 5 or 6 oz. short, while the piece of makeweight may not reach an ounce. The customer sees the bread put on the scale, but in ninety-nine cases out of a hundred does not trouble to verify the weight, and unless he expressly asks for 2 ℔ or some specific weight of bread, it is very doubtful whether the seller, having satisfied the letter of the law by placing the bread on the scales, could be convicted of fraud. The provision as to selling by weight does not apply to fancy bread and rolls. No exact definition of “fancy bread” has ever been laid down, and it must be largely a question of fact in each particular case. All bakers or sellers of bread must use avoirdupois weight, and must provide, in a conspicuous place in the shop, beams, scales and weights, in order that all bread there sold may from time to time be weighed in the presence of the purchaser. The penalty for using any other weight than avoirdupois is a sum not exceeding £5 nor less than forty shillings, and for failing to provide beams and scales a sum not exceeding £5. Also every baker and seller of bread, delivering by cart or other conveyance, must be provided with scales and weights for weighing bread; but since the Weights and Measures Act 1889, no penalty is incurred by omission to weigh, unless there has been a request on the part of the purchaser. The acts also define precisely what ingredients may be employed in the manufacture of bread, and impose a penalty not exceeding £10 nor less than £5 for the adulteration of bread. (See further under Adulteration.)

In England, a law was passed in 1266 to regulate the price of bread through a public assessment, and this system remained in effect until 1822 in London and until 1836 for the rest of the country. The price of bread was calculated by adding a specific amount to the price of each quarter of flour to cover the baker's costs and profit. Bakers were required to produce and sell eighty quartern loaves or a similar proportion of other sizes, which was thought to be the yield from each quarter of flour. The laws currently governing the production and sale of bread in Great Britain include the 1822 act (Sale of Bread in the City of London and within 10 miles of the Royal Exchange) and the Bread Act of 1836, which pertains to the sale of bread beyond 10 miles from the Royal Exchange. These acts mandate that bread must be sold by weight and not in any other way, with a penalty of up to forty shillings for noncompliance. However, this does not mean that a seller must offer any specific weight; the terms quartern and half-quartern, which are commonly understood to refer to 4-pound and 2-pound loaves, respectively, have no legal backing. In other words, a baker isn't required to sell a loaf weighing 4 pounds or 2 pounds; all they have to do when a customer requests a loaf is to place it on the scale, weigh it, and state the weight. When bread is sold over the counter, vendors typically cut off a piece of bread to make up for any shortfall in the loaf. This is known as “overweight.” There’s little doubt that the somewhat unclear wording of the bread acts can lead to fraud. For example, when bread is sold over the counter, two loaves may each be 5 or 6 ounces short, while the piece added for weight might not even be an ounce. Customers usually see the bread put on the scale but, in ninety-nine out of a hundred cases, they don't bother to check the weight. Unless they specifically ask for 2 pounds or another set weight of bread, it’s very unlikely that a seller could be accused of fraud after following the letter of the law by merely weighing the bread. The requirement to sell by weight does not apply to specialty bread and rolls. No clear definition of “fancy bread” has ever been established, and it largely depends on the specific circumstances. All bakers or bread sellers must use avoirdupois weight and must have beams, scales, and weights displayed prominently in their shops, so customers can weigh the bread when they purchase it. The penalty for using any weight other than avoirdupois is up to £5, with a minimum of forty shillings, and the same maximum applies for not having beams and scales available. Additionally, every baker and seller of bread delivering by cart or other means must have scales and weights for weighing bread; however, since the Weights and Measures Act of 1889, no penalty is applied for not weighing unless the purchaser requests it. The acts also clearly define what ingredients can be used in making bread, imposing a penalty of up to £10 and no less than £5 for any bread adulteration. (See further under Adulteration.)

Although the act of 1836 extends to the whole of the United Kingdom (Ireland excepted) out of the city of London and beyond 10 m. of the Royal Exchange, yet in many Scottish burghs this act is replaced by local acts on the sale of bread. These are in all cases of a much more stringent nature, requiring all batch or household bread to be stamped with the reputed weight. Any deficiency within a certain time from the withdrawal of the bread from the oven is an offence. The London County Council desired to introduce a similar system into the area under their jurisdiction, and promoted a bill to that effect in 1905, but it fell through. The bill was opposed not only by the National Association of Master Bakers, the London Master 467 Bakers’ Protection Society, and by the West End metropolitan bakers in a body, but also by the Home Office, which objected to what it termed exceptional legislation.

Although the act of 1836 applies to the entire United Kingdom (excluding Ireland) outside of London and beyond 10 miles of the Royal Exchange, many Scottish towns have replaced this act with local laws regarding the sale of bread. These local laws are generally much stricter, requiring all batch or household bread to be marked with its actual weight. Any shortcoming within a certain time after the bread has been taken out of the oven is considered an offense. The London County Council wanted to implement a similar system in their area and proposed a bill to that effect in 1905, but it didn't succeed. The bill faced opposition not only from the National Association of Master Bakers, the London Master Bakers’ Protection Society, and the West End metropolitan bakers as a group, but also from the Home Office, which opposed what it called exceptional legislation.

It may be noted that the acts of 1822 and 1836 define precisely what may and may not be sold as bread. It is laid down in section 2 that “it shall and may be lawful ... to make and sell ... bread made of flour or meal of wheat, barley, rye, oats, buckwheat, Indian corn, peas, beans, rice or potatoes, or any of them, and with any (common) salt, pure water, eggs, milk, barm, leaven, potato or other yeast, and mixed in such proportions as they shall think fit, and with no other ingredients or matter whatsoever.”

It’s important to note that the acts of 1822 and 1836 clearly state what can and cannot be sold as bread. Section 2 specifies that “it is lawful to make and sell bread made from flour or meal of wheat, barley, rye, oats, buckwheat, corn, peas, beans, rice, or potatoes, or any combination of these, along with any (common) salt, pure water, eggs, milk, yeast, or leaven, mixed in whatever proportions they choose, and with no other ingredients or substances.”

Sanitation of Bakehouses.—The sanitary arrangements of bakehouses in England were first regulated by the Bakehouse Regulation Act 1863, which was repealed and replaced by the Factory and Workshop Act 1878; this act, with various amending acts, was in turn repealed and replaced by the Factory and Workshop Act 1901. By the act of 1901 a bakehouse is defined as a place in which are baked bread, biscuits or confectionery, from the baking or selling of which a profit is derived. The act of 1863 placed the sanitary supervision of bakehouses in the hands of local authorities; from 1878 to 1883 supervision was in the hands of inspectors of factories, but in 1883 the supervision of retail bakehouses was placed in the hands of local authorities. Under the act of 1901 the supervision of bakehouses which are “workshops” is carried out by local authorities, and for the purposes of the act every bakehouse is a workshop unless within it, or its close or curtilage or precincts, steam, water or other mechanical power is used in aid of the manufacturing process carried on there, in which case it is treated as a non-textile factory, and is under the supervision of factory inspectors.

Sanitation of Bakehouses.—The sanitary regulations for bakehouses in England were first established by the Bakehouse Regulation Act of 1863, which was later repealed and replaced by the Factory and Workshop Act of 1878; this act, along with several amendments, was eventually repealed and replaced by the Factory and Workshop Act of 1901. According to the 1901 act, a bakehouse is defined as a place where bread, biscuits, or confectionery are baked for profit. The 1863 act placed the responsibility for supervising bakehouses in the hands of local authorities. From 1878 to 1883, this supervision was managed by factory inspectors, but in 1883, local authorities took over the supervision of retail bakehouses. Under the 1901 act, the supervision of bakehouses considered as "workshops" is handled by local authorities, and for the purposes of the act, every bakehouse is classified as a workshop unless it uses steam, water, or other mechanical power in its manufacturing processes, in which case it is considered a non-textile factory and falls under the oversight of factory inspectors.

The more important regulations laid down by the act are: (1) No water-closet, &c., must be within or communicate directly with the bakehouse; every cistern for supplying water to the bakehouse must be separate and distinct from any cistern supplying a water-closet; no drain or pipe for carrying off sewage matter shall have an opening within the bakehouse. (2) The interior of all bakehouses must be limewashed, painted or varnished at stated periods. (3) No place on the same level with a bakehouse or forming part of the same building may be used as a sleeping place, unless specially constructed to meet the requirements of the act. (4) No underground bakehouse (one of which the floor is more than 3 ft. below the surface of the footway of the adjoining street) shall be used unless certified by the district council as suitable for the purpose (see Redgrave, Factory Acts; Evans Austin, Factory Acts).

The key regulations set out by the act are: (1) No toilet, etc., can be inside or directly connected to the bakehouse; every water supply tank for the bakehouse must be separate from any tank supplying a toilet; no drain or pipe for sewage can have an opening inside the bakehouse. (2) The interior of all bakehouses must be limewashed, painted, or varnished at regular intervals. (3) No area at the same level as the bakehouse or part of the same building can be used as a sleeping space unless specifically built to comply with the act's requirements. (4) No underground bakehouse (where the floor is more than 3 ft. below the surface of the adjacent street) can be used unless certified by the district council as suitable for that purpose (see Redgrave, Factory Acts; Evans Austin, Factory Acts).

Bread Sluffs.—As compared with wheat-flour, all other materials used for making bread are of secondary importance. Rye bread is largely consumed in some of the northern parts of Europe, and cakes of maize meal are eaten in the United States. In southern Europe the meal of various species of millet is used, and in India and China durra and other cereal grains are baked for food. Of non-cereal flour, the principal used for bread-making is buckwheat (Fagopyrum esculentum), extensively employed in Russia, Holland and the United States. The flour of pease, beans and other leguminous seeds is also baked into cakes, and in South America the meal of the tapioca plant, Jatropha Manihot, is employed. But, excepting rye, none of these substances is used for making vesiculated or fermented bread.

Bread Sluffs.—Compared to wheat flour, all other ingredients used to make bread are less important. Rye bread is commonly eaten in some northern parts of Europe, and cornmeal cakes are popular in the United States. In southern Europe, various types of millet flour are used, while in India and China, grains like durra are baked for food. Among non-cereal flours, the main one used for bread-making is buckwheat (Fagopyrum esculentum), which is widely used in Russia, Holland, and the United States. Flour from peas, beans, and other legumes is also made into cakes, and in South America, flour from the tapioca plant, Jatropha Manihot, is used. However, except for rye, none of these ingredients is used to make leavened or fermented bread.

A normal sample of wheat-flour consists roughly of 10 parts of moisture, 72 of starch, 14 of nitrogenous matter, 2.25 of fatty matters, and 1.75% of mineral matter. Starch is thus the predominating component; it is not, however, the Quality of flour. dough-forming ingredient. By itself, starch, when saturated with water, forms a putty-like mass devoid of coherence, and it is the gluten of the nitrogenous matter which is the binding constituent in dough-making, because when wetted it forms a more or less elastic body. The proportion of gluten in wheat-flour varies from 7 to 15%, but the mere quantity of gluten is by no means the only standard of the commercial value of the flour, the quality also counting for much. One of the functions of gluten is to produce a high or well-piled loaf, and its value for this purpose depends largely on its quality. This is turn depends largely on the variety of wheat; certain races of wheat are much richer in nitrogenous elements than others, but such wheats usually only flourish in certain countries. Soil and climate are undoubtedly factors in modifying the character of wheat, and necessarily therefore of the flour. The same wheat grown in the same soil will show very varying degrees of strength (i.e. of gluten) in different seasons. For instance, the north-western districts of America grow a hard spring wheat which in a normal season is of almost unequalled strength. In 1904 an excess of moisture and deficiency in sun in the Red River Valley during the critical months of June and July caused a serious attack of red and black rust in these wheat fields, the disease being more virulent in the American than the Canadian side of the valley. The result was that the quality of the gluten of that season’s American spring wheat was most seriously affected, its famed strength being almost gone. Wheat from the Canadian side was also affected, but not nearly to so great an extent. Flour milled from hard winter wheat in the American winter districts is sometimes nearly as strong as the spring wheat of the North-west. Hungarian flour milled from Theis wheat is also very strong, and so is the flour milled from some south Russian spring wheats. But here again the degree of strength will vary from season to season in a remarkable manner. In the main each land has its own clearly marked type of wheat. While the United States, Canada, Hungary and Russia are each capable of growing strong wheat, Great Britain, France and Germany produce wheat more or less weak. It follows that the bread baked from flour milled from wheat from British, French or German wheat alone would not make a loaf of sufficient volume, judged by present British standards. As a matter of fact, except in some country districts, British bakers either use strong foreign flour to blend with English country flour, or, more frequently, they are supplied with flour by British millers milled from a blend in which very often English wheat has a small, or no place at all. If the baker’s trade calls for the making of household bread, especially of the London type, he must use a strong flour, with plenty of staple gluten in it, because it is this element which supplies the driving or lifting force, without which a high, bold loaf cannot be produced. If the demand is for tin or (as it is called in many parts of the north of England) pan bread, a weaker flour will suffice, as the tin will keep it up. A Vienna loaf should be made with at least a certain proportion of Hungarian patent flour, which is normally the highest-priced flour in the market, though probably the bulk of the Vienna rolls made in London contain no Hungarian flour. A cake of flat shape can be very well made with a rather weak flour, but any cake that is required to present a domed top cannot be prepared without a flour of some strength.

A typical sample of wheat flour contains about 10 parts moisture, 72 parts starch, 14 parts nitrogenous matter, 2.25 parts fat, and 1.75% mineral matter. Starch is the main component, but it's not the ingredient that forms dough. On its own, starch mixed with water creates a putty-like substance that lacks cohesion, while the gluten from the nitrogenous matter acts as the binding agent in dough-making, becoming more or less elastic when wet. The amount of gluten in wheat flour varies between 7 and 15%, but simply having more gluten isn't the only measure of flour's commercial value; its quality is also very important. One of gluten's roles is to produce a well-risen loaf, and its effectiveness for this relies heavily on its quality. This, in turn, depends a lot on the type of wheat; some varieties are much richer in nitrogen than others, but those wheats usually only thrive in specific regions. Soil and climate significantly affect the characteristics of wheat, and thus the flour. The same wheat planted in the same soil can have different levels of strength (i.e., gluten) in different years. For example, the northwestern regions of America grow a hard spring wheat that is exceptionally strong in a normal season. In 1904, excessive moisture and lack of sun in the Red River Valley during crucial months caused a serious outbreak of red and black rust in these wheat fields, particularly affecting the American side more than the Canadian side. As a result, the quality of gluten in that season’s American spring wheat was greatly diminished, losing its renowned strength. Canadian wheat was also impacted, but not nearly as much. Flour from hard winter wheat in the American winter regions can sometimes be almost as strong as the spring wheat from the Northwest. Hungarian flour made from Theis wheat is also very strong, as is flour from certain South Russian spring wheats. However, once again, the level of strength can fluctuate significantly from season to season. Generally, each country has its own distinct type of wheat. While the U.S., Canada, Hungary, and Russia can grow strong wheat, Great Britain, France, and Germany produce wheat that is usually weaker. Therefore, bread made solely from flour milled from British, French, or German wheat would not rise sufficiently by modern British standards. In reality, except in some rural areas, British bakers either blend strong foreign flour with English country flour or, more commonly, they get flour from British millers that is often a mix where English wheat has little to no presence. If bakers need to make household bread, especially the London variety, they must use a strong flour that has a lot of gluten, as this ingredient is crucial for giving the dough the lift it needs to create a tall loaf. If the demand is for tin bread (or pan bread, as it's referred to in many northern parts of England), a weaker flour will work since the tin will support it. A Vienna loaf should be made with at least a certain amount of Hungarian patent flour, which is typically the most expensive flour available, although most Vienna rolls made in London likely don’t contain any Hungarian flour. A flat-shaped cake can be made quite well with rather weak flour, but any cake that needs to have a domed top requires flour of some strength.

It is a general opinion, though contested by some authorities, that soft, weak flours contain more flavour than strong, harsh flours. The strong wheats of the American and Canadian North-West make less flavoury flour than Flavour of flour. soft red winter from the American South-West. It would not, however, be correct to say that all strong wheats are necessarily less full of flavour than weak wheats. Hungarian wheat, for instance, is one of the strongest wheats of the world, but has a characteristic and pleasant flavour of its own. Indian wheats, on the other hand, are not particularly strong, but are liable to give a rather harsh flavour to the bread. English, French and German wheats, when harvested in good condition, produce flour of more or less agreeable flavour. None of these wheats could be classified as strong, though from each of those lands wheat of fair strength may be obtained under favourable meteorological conditions. The Australasian continent raises white wheat of fine quality which has much affinity with British wheat—it is the descendant in many cases of seed wheats imported from England—but it is occasionally stronger. The resultant flour is noted for its sweetness. Both millers and bakers who are concerned with the supply of high-class bread and flour make free use of what may be termed flavoury wheats. The proportion of English wheat used in London mills is very small, but millers who supply West-End bakeries with what is known as top-price flour are careful to use a certain amount of English wheat, if it is to be had in prime condition. They term this ingredient of their mixture “sugar.” London bakers again, 468 with customers who appreciate nicely flavoured bread, will “pitch” into their trough a certain proportion of English country flour, that is, flour milled entirely or chiefly from English wheat, which under such conditions is strengthened by a blend of strong flour, a patent flour for choice. It has been objected that as English wheat contains a large proportion of starch, and as starch is admittedly destitute of flavour, there is no reason why flour milled from English wheat should possess a sweeter flavour than any other starchy wheat flour. Experience, however, has amply proved that well-ripened English wheat produces bread with an agreeable flavour, though it does not follow that all English wheat is under all conditions capable of baking bread of the highest quality. But it would be as fallacious to hold that weak flour is necessarily flavoury, as that all strong flour is insipid and harsh. Different wheats are undoubtedly possessed of different flavours, but not all these flavours are of a pleasing character. In some cases the very reverse is true. Californian and Australian wheats have occasionally aromatic odours, due to the presence of certain seeds, that will impart an objectionable flavour to the resultant bread.

It’s generally believed, though some experts disagree, that soft, weak flours have more flavor than strong, harsh flours. The strong wheats from the American and Canadian Northwest produce flour that’s less flavorful than soft red winter wheat from the American Southwest. However, it wouldn’t be accurate to say that all strong wheats lack flavor compared to weak wheats. For example, Hungarian wheat is one of the strongest in the world but has a distinctive and pleasant taste. Indian wheats, on the other hand, aren’t particularly strong but tend to give bread a rather harsh flavor. English, French, and German wheats, when harvested properly, yield flour with a reasonably pleasant flavor. None of these wheats can be classified as strong, although it's possible to obtain moderately strong wheat from these regions under favorable weather conditions. The Australasian continent produces high-quality white wheat that resembles British wheat—it often descends from seeds imported from England—but can sometimes be stronger. The resulting flour is known for its sweetness. Both millers and bakers who focus on supplying high-quality bread and flour frequently use what can be called flavorful wheats. The amount of English wheat used in London’s mills is quite limited, but millers who provide West End bakeries with what’s known as top-price flour make sure to include some English wheat, when it’s available in prime condition. They refer to this component of their mixture as “sugar.” London bakers, catering to customers who enjoy well-flavored bread, will add a certain proportion of English country flour—flour milled entirely or mostly from English wheat—which is then enhanced by a blend of strong flour, usually a specific type of patent flour. It’s been argued that since English wheat contains a significant amount of starch, and starch has no flavor, there’s no reason why flour made from English wheat should have a sweeter flavor than other starchy wheat flours. However, experience has shown that well-ripened English wheat does produce bread with a pleasant flavor, although not all English wheat can consistently make bread of the highest quality. But it’s equally misleading to say that weak flour is inherently flavorful, just as it is to claim that all strong flour is tasteless and harsh. Different wheats definitely have different flavors, but not all of these flavors are pleasant. In some cases, the opposite can be true. Californian and Australian wheats sometimes have aromatic odors, resulting from certain seeds, that can give an unpleasant flavor to the bread produced.

While the essential character of particular wheats will account for a good deal of the flavour that may be detected in the bread made from them, the baking process must also be responsible to some extent for flavour. The temperature of the oven and the degree of fermentation must be factors in the question. It has been asserted that the same flour will bake into bread of very different flavour according as the fermentation is carried out slowly or quickly, or as the oven is hot or the reverse. A high temperature seems to have the effect of quickly drawing out the subtle essences which go to give flavour to the bread, but it is a question whether they are not subsequently rapidly volatilized and partially or wholly lost. The rapid formation of a solid crust is no doubt likely to retain some of these flavouring essences. A moist, or “slack,” sponge, or dough, appears distinctly favourable to the retention of flavour, the theory being that under such conditions the yeast, having more room to “breathe,” works more easily, and is therefore less likely to convert into food those soluble constituents of the flour which give flavour.

While the unique characteristics of specific wheats contribute significantly to the flavor detected in the bread made from them, the baking process also plays a role in flavor development. Factors such as oven temperature and fermentation levels are important. It's been claimed that the same flour can produce bread with very different flavors depending on whether the fermentation is done slowly or quickly, and whether the oven is hot or not. A high temperature seems to quickly bring out the subtle flavors that contribute to the bread’s taste, but it’s uncertain if these flavors are also quickly lost through evaporation. The fast formation of a solid crust likely helps to retain some of these flavor compounds. A moist or “slack” sponge or dough appears to favor flavor retention, as the theory suggests that in such conditions, the yeast has more room to “breathe,” making it less likely to convert the flour’s soluble flavor components into food.

The colour of flour is a valuable, though not an infallible, index to its baking qualities. Thus, a flour of good colour, by which bakers mean a flour of bright appearance, white, but not a dull dead white, will usually bake into a loaf Colour of flour. of good appearance. At the same time, a flour of pronounced white tint may bake into a dirty grey loaf. This has been particularly noted in the case of flours milled in Argentina. The colour of flour will vary from a rich, creamy white to a dull grey, according to its quality. The different shades are many and various, but the prevailing tints are comparatively few. Perhaps Blandy’s classification of the colours as white, yellow, red, brown and grey is as serviceable as any. Each of these tints is directly caused by the presence of certain substances. White denotes the presence of a considerable proportion of starch, while a pronounced yellow tint proclaims gluten of more or less good quality. Red and brown are tints only found in flours of low grade, because they are sure proofs of an undue proportion of branny or fibrous particles. A greyish flour invariably contains impurities, such as crease dirt, from the wheat, the intensity of the tint varying in proportion to their amount. With regard to a yellow tint, though this always denotes the presence of gluten, it is difficult to estimate the baking quality of the flour by the shade of yellow. In the best Hungarian patent flour the whole sample will be suffused by an amber tint, known to Budapest and Vienna bakers as gelblicher Stich. Rolls baked from the best Hungarian flour will not infrequently cut yellow as if eggs had been used in making them up, though nothing more than flour, yeast and water has been employed. Strong flour milled from American or Canadian spring wheat is also yellowish in colour, but the tint is not so deep as with Hungarian flour. On the other hand, there are flours of no great strength, such as those from some Australian wheats, which are apt to look yellow. When the colour of flour is not maintained in the bread, the reason is generally to be found in the baking process employed. Colour is a fairly trustworthy, but not an absolute guide to the chemical composition of flour.

The color of flour is a useful, though not perfect, indicator of its baking qualities. Generally, flour that is bright and white, but not a dull, lifeless white, will usually produce a loaf that looks good. Conversely, flour that appears very white might result in a dirty gray loaf, especially seen in flours from Argentina. Flour colors can range from a rich, creamy white to a dull gray, depending on its quality. There are many shades, but the main colors are relatively few. Blandy’s classification of colors as white, yellow, red, brown, and gray is quite practical. Each of these colors is caused by specific substances. White indicates a high amount of starch, while a strong yellow color suggests gluten of varying quality. Red and brown shades are usually found in lower-quality flours, as they are clear signs of excess branny or fibrous particles. A grayish flour typically contains impurities like crease dirt from the wheat, with the color intensity reflecting the amount of impurities. When it comes to yellow flour, while it indicates the presence of gluten, it’s hard to judge the baking quality based on the yellow shade alone. The best Hungarian patent flour often has a warm amber tint, known to bakers in Budapest and Vienna as gelblicher Stich. Rolls made from this top-quality Hungarian flour can sometimes cut yellow as if eggs were added, even when only flour, yeast, and water are used. Strong flour made from American or Canadian spring wheat also tends to be yellowish, though the hue isn’t as intense as with Hungarian flour. On the other hand, some Australian wheats produce flour that can look yellow but lacks strength. If the flour color doesn’t carry over into the bread, it’s usually due to the baking method used. Color is a fairly reliable, but not foolproof, indicator of the chemical composition of flour.

Unfortunately not all flour of good colour is sound for bread-making purposes. Wheat which has been harvested in a damp condition, or has been thoroughly soaked, by drenching showers previous to cutting, or has got wet in the stook, Damp and flour. is liable, unless carefully handled, to produce flour that will only bake flat, sodden loaves. Wheat which has received too much rain as it is approaching maturity, and has then been exposed to strong sunlight, is peculiarly liable to sprout. This seems to happen not infrequently to La Plata wheat, and though wheat shippers in that country are usually careful to clean off the little green spikes, this outward cleansing does not remedy the mischief wrought to the internal constitution of the berry. Such wheat makes flour lacking in strength and stability. Its gluten is immature and low in percentage, while the soluble albuminoids are in high percentage and in a more or less active diastasic state. The starch granules are liable to have weakened or fissured walls, and the proportion of moisture and of soluble extract will be high. With regard to the beneficial action of kiln or other drying on damp flour, William Jago was convinced by a series of experiments that the gentle artificial drying of flour increases its water-absorbing capacity to about three times the amount of water lost by evaporation. On the other hand, a damp flour dried too quickly and at too great a heat is liable to be made more instead of less susceptible to diastasic changes.

Unfortunately, not all flour with a good color is suitable for making bread. Wheat harvested in damp conditions, or that has been soaked by heavy rain before cutting, or got wet while still in the field, Wet and flour. can produce flour that only bakes into flat, soggy loaves unless handled carefully. Wheat that receives too much rain as it nears maturity and then is exposed to strong sunlight is particularly prone to sprouting. This often happens with La Plata wheat, and although exporters there usually clean off the little green sprouts, this surface cleaning doesn’t fix the damage done to the inside of the grain. Such wheat results in flour that lacks strength and stability. Its gluten is underdeveloped and low in percentage, while the soluble albuminoids are high in percentage and somewhat actively diastatic. The starch granules may have weakened or cracked walls, and the moisture and soluble extract content will be high. Regarding the positive effects of kiln or other drying on damp flour, William Jago concluded from a series of experiments that gentle artificial drying increases flour's ability to absorb water to about three times the amount lost through evaporation. On the flip side, damp flour dried too quickly and at too high a temperature can become more vulnerable to diastatic changes rather than less.

Alum.—Strictly speaking, when employed with weak and unstable flours alum is a remedial agent. The popular idea that it acts as a kind of bleacher of flour, having the faculty of converting flour that is dark-coloured through containing a sensible proportion of branny particles and woody fibre, into white-coloured loaves, is erroneous. Its action as a producer of white bread is indirect, not direct, though it is none the less effective. It seems to act as a brace to or steadier of unstable gluten. If from the same wheat a certain proportion of gluten be extracted and divided into two parts, of which one is placed in a glass of water containing a strong solution of alum, and the other in a glass of plain water, the gluten in the latter case will become spent days and perhaps weeks before the sample in the alumed water is disintegrated. The place of alum in the process of fermentation is well marked. By holding together unstable gluten, it checks the diastasic action, and the proportion of starch converted into glucose (grape sugar) is reduced, with the result that a whiter and more porous loaf is produced. It is generally admitted that by the use of alum more or less eatable bread may be baked from flour which otherwise could hardly be made into bread at all. Strictly, therefore, this substance is not an adulterant, inasmuch as it is not a substitute in any sense for flour. But it is admittedly unwholesome, and therefore its legal interdiction for alimentary purposes is quite justifiable. Another aspect of the use of alum is that it is employed for the purpose of enabling bakers to use poor flour.

Alum.—Technically, when used with weak and unstable flours, alum acts as a remedy. The common belief that it bleaches flour, turning dark-colored flour containing a noticeable amount of bran and woody fibers into white loaves, is incorrect. Its role in producing white bread is indirect, yet still effective. It seems to stabilize unstable gluten. If you take the same wheat and extract a certain amount of gluten, separating it into two parts—one placed in a glass of water with a strong alum solution and the other in plain water—the gluten in plain water will break down in a matter of days or weeks, while the sample in the alum water will last much longer before disintegrating. The role of alum in fermentation is clear. By stabilizing unstable gluten, it slows down the diastatic action, reducing the amount of starch that is turned into glucose (grape sugar), resulting in a whiter and more porous loaf. It is generally accepted that using alum can make more or less edible bread from flour that would otherwise be nearly impossible to bake into bread. Thus, this substance is not strictly an adulterant since it is not a substitute for flour. However, it is considered unhealthy, making its legal ban for food purposes completely justified. Additionally, bakers use alum to enable them to work with poor-quality flour.

A fairly satisfactory test for alum in bread (or flour) is afforded by an alkaline solution of logwood and a saturated solution of ammonium carbonate. The presence of alum is shown by a lavender or full blue colour. The depth of the tint is said to be a rough guide to the quantity of alum present. According to Jago this test is so sensitive that it has resulted in the detection of 7 grains of alum in a 4-℔ loaf.

A pretty reliable test for alum in bread (or flour) can be done using an alkaline solution of logwood and a saturated solution of ammonium carbonate. The presence of alum is indicated by a lavender or dark blue color. The intensity of the color is considered a rough guide to the amount of alum present. According to Jago, this test is so sensitive that it has successfully detected 7 grains of alum in a 4-pound loaf.

Besides alum, small quantities of copper sulphate have been used for checking diastasis and retarding fermentation. This substance has the same effect as alum, but as all copper salts are active poisons, the employment of copper sulphate is most strongly to be condemned.

Besides alum, small amounts of copper sulfate have been used to control diastasis and slow down fermentation. This substance has the same effect as alum, but since all copper salts are toxic, using copper sulfate is highly discouraged.

Lime-water.—The object of using either alum or copper sulphate is to check over-rapid diastasis during fermentation. Baron Liebig pointed out a much less objectionable means of attaining the same end by means of lime-water, about 1½ oz. of fresh quicklime being dissolved in the water used for doughing one sack of flour. Bread made in this way is said to be spongy in texture, of agreeable flavour, and perfectly free from acidity. In the baked loaf the lime is transformed into calcium carbonate (chalk) by the carbon dioxide resulting from the panary fermentation. It is said that an increased yield of bread may be obtained by the use of lime-water; the explanation may be that lime-water, by retarding the degradation of the gluten and the diastasis of the starch, increases the water-retaining power of the flour, so that the same weight of flour yields a greater volume of bread.

Lime-water.—Using either alum or copper sulfate aims to slow down excessive breakdown during fermentation. Baron Liebig suggested a less problematic method to achieve the same result by using lime-water, where about 1½ oz. of fresh quicklime is dissolved in the water used for mixing one sack of flour. Bread made this way is reported to have a spongy texture, pleasant flavor, and is completely free of acidity. In the baked loaf, the lime converts into calcium carbonate (chalk) due to the carbon dioxide produced during the fermentation process. It’s claimed that using lime-water can lead to a higher yield of bread; this might be because lime-water slows down the breakdown of gluten and the conversion of starch, which enhances the flour’s ability to retain water, allowing the same amount of flour to produce a larger volume of bread.

Unvesiculated and Vesiculated Bread.—Wheaten bread may be divided into two main divisions, unvesiculated and vesiculated. The term vesiculated simply means provided with vesicles, or small membranous cavities, such as are found in all bread that has been treated by yeast, leaven or any other agent for rendering it spongiform in structure by the action of carbonic acid gas. Nearly all bread eaten by civilized folk is vesiculated, though 469 there are different methods and processes for attaining this result. Into the category of unvesiculated bread enter such products as the Australian damper, a flat cake prepared from flour, water and salt, and baked in the hot ashes of a wood fire. The dough is spread on a flat stone and covered with a tin plate, while the hot ashes are heaped around and over it; the heat should not be much in excess of 212° Fahr. The scone, the bannock and other similar cakes, still much appreciated in Scotland and the north of England, are also examples of unvesiculated bread. They are baked on hot plates or “griddles,” on hearths, and sometimes in ovens. Biscuits differ from these cakes in the fact that they are baked by a high instead of a moderate heat. But they enter so far into the class of unvesiculated bread that they are generally prepared without the aid of any such aerating agent as carbon dioxide. (See Biscuit.)

Unvesiculated and Vesiculated Bread.—Wheat bread can be divided into two main types: unvesiculated and vesiculated. The term vesiculated means having small, membranous cavities, which are found in all bread that has been made with yeast, leaven, or any other agent that makes it fluffy through the action of carbon dioxide. Almost all bread consumed by people today is vesiculated, although there are different methods and processes to achieve this. Examples of unvesiculated bread include the Australian damper, a flat cake made from flour, water, and salt, baked in the hot ashes of a wood fire. The dough is spread on a flat stone and covered with a tin plate, while hot ashes are piled around and over it; the heat should not exceed about 212° Fahrenheit. Scones, bannocks, and other similar cakes, which are still popular in Scotland and northern England, are also types of unvesiculated bread. They are cooked on hot plates or “griddles,” on hearths, and sometimes in ovens. Biscuits differ from these cakes in that they are baked at a higher heat instead of a moderate one. However, they are still considered part of the unvesiculated bread category since they are typically made without any aerating agent like carbon dioxide. (See Biscuit)

Vesiculated bread is now the only article of diet made from flour to which the term bread is applied, and there are various ways of producing the spongiform texture by which it is characterized. The ordinary and doubtless the most satisfactory way is by developing the carbon dioxide within the dough itself by the use of yeast (q.v.) or leaven, which sets up alcoholic fermentation, splitting up the saccharine matters in the flour into alcohol and carbon dioxide. The latter is retained by the dough and distends it, causing the bread to “rise.” Or the carbon dioxide may be artificially introduced, as in the so-called “aerated” bread (see below), or it may be produced by the agency of certain chemicals, as for instance of baking powders.

Vesiculated bread is now the only type of food made from flour that is called bread, and there are different methods for creating the spongy texture that defines it. The most common and likely the most effective method is by generating carbon dioxide within the dough itself using yeast (q.v.) or leaven, which triggers alcoholic fermentation, breaking down the sugary components in the flour into alcohol and carbon dioxide. The carbon dioxide is trapped in the dough and makes it expand, causing the bread to “rise.” Alternatively, the carbon dioxide can be added artificially, as seen in “aerated” bread (see below), or it can be produced using certain chemicals, such as baking powders.

Such powders are mixtures which, under the influence of either water or heat, evolve carbon dioxide. These powders have been divided by Jago into three groups:—(1) Tartrate powders, in which the acid constituent is either free Baking powders. or partly combined tartaric acid; (2) Phosphate powders, in which the acid is some form of phosphoric acid; (3) Alum powders. All these powders have a more or less aperient action on the human system. Tartrate powders have the disadvantage that both commercial tartaric acid and cream of tartar frequently contain lead, a poisonous substance. Phosphate powders are less open to objection, as they are more easy to obtain free from lead and other metallic impurities. Alum powders contain potassium bisulphate and alum. It is somewhat remarkable that while the presence of alum in bread is regarded by the law of England as adulteration, its use in baking powder was pronounced legal in James v. Jones, 1894, 1, Q.B. 304, on the ground that baking powder is not food within the meaning of the Sale of Food and Drugs Act 1875. In making wholemeal bread, hydrochloric acid and sodium bicarbonate are often used in such proportions that they neutralize each other. Carbon dioxide is evolved and raises the dough. In preparing wholemeal bread the use of this combination has the advantage that the acid acting rapidly on the sodium bicarbonate soon produces enough carbon dioxide to aerate the dough, and thus hasten its entry into the oven. Wholemeal flour contains so large a proportion of cerealin that diastasis is apt to proceed rapidly, the result being a clammy, sodden loaf. For this reason, perhaps the so-called aerated process is even more suitable for making wholemeal than white bread.

These powders are mixtures that release carbon dioxide when they come into contact with water or heat. Jago categorized these powders into three groups: (1) Tartrate powders, which contain either free or partially combined tartaric acid; (2) Phosphate powders, where the acid is some form of phosphoric acid; and (3) Alum powders. All of these powders have a more or less laxative effect on the human body. Tartrate powders have the drawback that both commercial tartaric acid and cream of tartar often contain lead, which is toxic. Phosphate powders are generally considered safer because they can be obtained with fewer lead and other metallic impurities. Alum powders have potassium bisulphate and alum in them. Interestingly, while alum is considered an adulterant in bread under English law, its use in baking powder was deemed legal in James v. Jones, 1894, 1 Q.B. 304, because baking powder is not classified as food according to the Sale of Food and Drugs Act 1875. When making wholemeal bread, hydrochloric acid and sodium bicarbonate are often used in amounts that neutralize each other. This reaction produces carbon dioxide that helps the dough rise. In the preparation of wholemeal bread, this combination is beneficial because the acid acts quickly on the sodium bicarbonate, quickly generating enough carbon dioxide to aerate the dough, thus speeding up its baking time. Wholemeal flour has a high amount of cerealin, which can lead to rapid diastasis, often resulting in a moist, heavy loaf. For this reason, the so-called aerated process might be even more effective for making wholemeal bread compared to white bread.

Methods of dough-making differ in different countries, and even in different parts of the same land. In the off hand method the dough is made right off, without any preliminary stages of ferment or sponge. This plan is sometimes Methods of making dough. adopted for making tin bread, and occasionally for crusty loaves. For tin bread a strong flour would be used and made into a slack dough, and about 1½ ℔ to 2 ℔ of distillers’ yeast would be used for the sack (280 ℔) of flour, occasionally with the addition of a little brewers’ yeast. Salt is used in the proportion of 3 ℔ to 3½ ℔ per sack. Formerly also it was the custom to add 10-14 ℔ of boiled potatoes, but the use of potatoes has greatly decreased. A tin-bread dough would be made slack, with about 70 quarts of water to the sack, and after being mixed, would be fermented at a temperature of 76-80° Fahr. It should lie for about ten hours. A dough for crusty bread such as cottage loaves, would be made much tighter, not more than 60 quarts of water being allowed to the sack. It would be fermented at a higher temperature, and would not lie more than about six hours. A slack dough is much less laborious to work (when the dough is hand-made) than a tight dough, for which a mechanical kneader is very suitable, but as a matter of fact the use of machinery (see below) is still the exception, not the rule. When a stiff dough is made by hand, it is usually made somewhat slack to begin with, and then “cut back” and “dusted” at regular intervals, that is to say, more and more flour is added till a dough of the required consistency has been obtained. (In the British baker’s vocabulary “dust” means flour, and good dust stands for good flour.) This system, on the one hand, saves the labour involved for “sponging” and other operations, and the bread is produced in less time; but on the other hand more yeast is used, and bakers generally hold that the system sacrifices the colour and texture of the loaf to convenience of working and yield. The high porportion of yeast enables the dough to carry a large quantity of water, and about 104 4-℔ loaves to the sack is said by Jago to be a not unusual yield in the case of slack doughs. But such a result would only be possible with very strong flour. In an ordinary way 96 loaves to the sack is a very high yield, unattainable except with strong flour, and probably the average yield is not more than 90 loaves to the sack. In London the manager of a “tied” shop is usually held to account for 92 loaves to the sack.

Methods of making dough vary across different countries and even within different regions of the same country. In the off hand method, dough is made directly, without any preliminary fermentation or sponge stages. This approach is sometimes used for making tin bread and occasionally for crusty loaves. For tin bread, strong flour is used to create a loose dough, and about 1½ to 2 pounds of distillers’ yeast is added for each sack (280 pounds) of flour, sometimes with a bit of brewers’ yeast added. Salt is used in a quantity of 3 to 3½ pounds per sack. It was also common in the past to add 10-14 pounds of boiled potatoes, but the use of potatoes has dropped significantly. A tin-bread dough is made loose, with about 70 quarts of water per sack, and after mixing, it ferments at a temperature of 76-80° Fahrenheit for about ten hours. A dough for crusty breads, like cottage loaves, is made much tighter, with no more than 60 quarts of water per sack. It ferments at a higher temperature and takes about six hours. A loose dough is much easier to work with by hand than a tight dough, which is better suited to mechanical kneaders, but in practice, the use of machinery (see below) is still more of an exception than the rule. When a stiff dough is made by hand, it is usually started off somewhat loose and then “cut back” and “dusted” at regular intervals, meaning that more flour is added until the desired consistency is reached. (In British baking terms, “dust” refers to flour, and good dust means good flour.) This method saves labor involved in “sponging” and other processes, allowing bread to be produced more quickly; however, it also requires more yeast, and bakers generally believe that this approach compromises the color and texture of the loaf for the sake of convenience and yield. The high amount of yeast allows the dough to absorb a large quantity of water, and Jago suggests that yielding about 104 4-pound loaves per sack is not unusual for slack doughs. However, this result can only be achieved with very strong flour. Typically, a yield of 96 loaves per sack is considered very high and can only be achieved with strong flour, with the average yield likely closer to 90 loaves per sack. In London, the manager of a “tied” shop is usually expected to produce 92 loaves per sack.

In the ferment and dough system, the ferment usually consists of 10 to 14 ℔ of potatoes to the sack of flour, boiled or steamed, and mashed with water, so as to yield about 3 gallons of liquor. There are several substitutes for potatoes, including raw and scalded flour, malt, malt extracts, &c.; brewers’ or distillers’ yeast may also be used. A ferment should contain saccharine matters and yeast stimulants in such a form as to favour the growth and reproduction of yeast in a vigorous condition. Hence it should not be too concentrated. About six hours are required for its preparation. It is added, together with 2 to 3 ℔ of salt, to the dough, which is prepared with about 56 quarts of water to the sack, and worked at a temperature of 80-84° Fahr. The dough is allowed to lie from two to five hours according to the flour used, the character of the ferment, and the working temperature. In this system the proportion of strong flour is usually reduced to 40% of the dough, and no doubt in some cases only soft or weak flours are used. Naturally the yield of bread is not so high as in the case of an off hand dough made entirely from strong flour, and it will probably not exceed 90 loaves to the sack. This method has many advantages. After the ferment is made the labour required is not much greater than with the off hand doughs, and less yeast is required, while potatoes, which are somewhat troublesome, from the necessary cleaning, can be replaced by the substitutes already mentioned. The method produces good-looking and palatable bread, though the loaves should be eaten within some twelve hours of leaving the oven.

In the ferment and dough system, the ferment typically consists of 10 to 14 lbs of potatoes per sack of flour, which are boiled or steamed and then mashed with water to produce about 3 gallons of liquid. There are various substitutes for potatoes, including raw and scalded flour, malt, malt extracts, etc.; brewers' or distillers' yeast can also be used. A ferment should contain sugars and yeast stimulants in a form that encourages the growth and reproduction of yeast in a strong state. Therefore, it shouldn't be too concentrated. Preparing it takes about six hours. It is added, along with 2 to 3 lbs of salt, to the dough, which is mixed with about 56 quarts of water per sack, and worked at a temperature of 80-84° Fahrenheit. The dough is allowed to rest for two to five hours, depending on the type of flour used, the characteristics of the ferment, and the working temperature. In this system, the proportion of strong flour is usually reduced to 40% of the dough, and sometimes only soft or weak flours are used. Naturally, the yield of bread isn't as high as with an all-strong-flour dough, and it probably won't exceed 90 loaves per sack. This method has many advantages. After making the ferment, the labor required is not much greater than with the all-in-one doughs, and less yeast is needed, while potatoes, which can be a hassle to clean, can be replaced by the substitutes mentioned. The method produces attractive and tasty bread, though the loaves should be consumed within about twelve hours of coming out of the oven.

The sponge and dough system, which is probably in widest use in England, is adapted to almost every kind of bread, and has the advantage that any kind of flour can be employed. The stronger flours which need long fermentation can be and usually are used in the “sponge” stage, while soft flours are utilized in the dough. (The sponge is a certain proportion, varying from a quarter to one-half, of the flour necessary for making the batch.) In London the baker often uses for the sponge a bag (140 ℔) of American spring wheat flour, and for the dough a sack (280 ℔) of British milled flour, which, whether it be country flour milled largely from English wheat or London milled, is always softer and weaker than that used for the sponge. The sponge is made very slack, 26 to 32 quarts of water being used to say 100 ℔ of flour. Yeast, either distillers’ or brewers’, must be added, in proportions varying according to its character and strength. Of distillers’ yeast 6 to 10 oz. may be used for 280 ℔ of flour (including sponge and dough). Salt is added to the sponge sparingly, at the rate of about ½ ℔ to the sack of 280 ℔ The object of making the sponge so slack is to quicken the fermentation. When set the sponge is allowed to ferment from six to ten 470 hours, according to temperature and other conditions. Sometimes all the water it is intended to use is put into the sponge, which is then known as a “batter” sponge. The sponge, when ready, is incorporated with the rest of the flour to which the necessary amount of water and salt is added. The whole mass is then doughed up into the requisite consistency, the dough being allowed to lie for about two hours. Bread made by this method, always assuming that over-fermentation has been avoided, is of good appearance, presenting a bold loaf, with even texture and a nice sheen. Owing to the use of soft flours, the flavour should be agreeable, and the loaves ought to keep much longer than bread made by ferment and dough. The yield may rise as high as 96 loaves per sack, if strong flour has been used in the sponge.

The sponge and dough system, probably the most popular in England, can be adapted for almost any type of bread and allows the use of any kind of flour. Stronger flours that require long fermentation are typically used in the “sponge” stage, while softer flours are used in the dough. (The sponge is a specific amount, ranging from a quarter to half, of the total flour needed for the batch.) In London, bakers often use a bag (140 lbs) of American spring wheat flour for the sponge, and a sack (280 lbs) of British milled flour for the dough, which, whether it’s country flour from English wheat or London milled, is always softer and weaker than the flour used for the sponge. The sponge is made with a relatively high amount of water, usually 26 to 32 quarts for about 100 lbs of flour. Yeast, either from distillers or brewers, is added in amounts that depend on its type and strength. You can use 6 to 10 oz. of distillers’ yeast for 280 lbs of flour (including both sponge and dough). Salt is added to the sponge in moderation, about ½ lb for the sack of 280 lbs. The reason for making the sponge quite slack is to speed up the fermentation. Once mixed, the sponge is allowed to ferment for six to ten hours, depending on the temperature and other conditions. Sometimes all the water intended for the dough is put into the sponge, which is then called a “batter” sponge. When the sponge is ready, it is combined with the rest of the flour, and the necessary amounts of water and salt are added. The whole mixture is then kneaded to the right consistency, and the dough is left to rest for about two hours. Bread made this way, assuming no over-fermentation occurs, has a good appearance, forming a robust loaf with an even texture and a nice shine. Thanks to the use of soft flours, the flavor should be pleasant, and the loaves should last much longer than bread made using the ferment and dough method. The yield can reach as high as 96 loaves per sack if strong flour was used in the sponge.

A combination of the above two methods, known as the ferment, sponge and dough system, is often used with brewers’ yeast. In this case the yeast is not added to the sponge direct, but goes into the ferment. This method is rather in favour with bakers who make their own yeast.

A mix of the two methods mentioned above, called the ferment, sponge and dough system, is commonly used with brewers’ yeast. In this approach, the yeast is not added directly to the sponge but is instead incorporated into the ferment. This method is quite popular among bakers who create their own yeast.

The system of bread-making generally used in Scotland is known as the flour barm, sponge and dough. The barm is a combination of a malt and hop yeast, with a slow, scalded flour ferment. To make the so-called “virgin” barm a Scottish baker would use a 30-gallon tub; a smaller vessel for malt-mashing; 10 ℔ malt; 3 oz. hops and a jar for infusing them; 40 lb flour; 2 to 3 oz. malt; 8 to 12 oz. sugar, and 18 gallons of boiling water. With these materials a powerful ferment is produced, which it is considered best to use in the sponge the fourth or fifth day after brewing. The sponges used in Scotland are “half” or “quarter.” About 6 ℔ of malt go to the sack, one-sixth going into the sponge. As in England, strong flours are used for the sponge, but rather stronger flours are used for the dough than is usual in England. Scottish loaves are largely of the “brick” type, high and narrow. Such bread has an attractive appearance and keeps well. It has a rather sharp flavour, approaching acidity but avoiding sourness, while the large quantity of malt used adds a characteristic taste. The yield rises in some Glasgow bread factories to 100 loaves to the sack.

The bread-making method commonly used in Scotland is called the flour barm, sponge, and dough. The barm is a mix of malt and hop yeast, along with a slowly fermented scalded flour. To create what's known as "virgin" barm, a Scottish baker would use a 30-gallon tub; a smaller container for malt-mashing; 10 lbs of malt; 3 oz of hops and a jar for infusing them; 40 lbs of flour; 2 to 3 oz of malt; 8 to 12 oz of sugar, and 18 gallons of boiling water. These ingredients produce a strong ferment, which is best used in the sponge on the fourth or fifth day after brewing. The sponges used in Scotland are "half" or "quarter." About 6 lbs of malt go into the sack, with one-sixth going into the sponge. Like in England, strong flours are used for the sponge, but even stronger flours are used for the dough than what is typically found in England. Scottish loaves are mostly of the "brick" type, tall and narrow. This bread looks appealing and stays fresh for a long time. It has a distinctly sharp flavor, nearing acidity but without being sour, while the large amount of malt contributes a unique taste. The yield in some Glasgow bread factories reaches up to 100 loaves per sack.

In many parts of Europe bread is still made from leaven, which, properly speaking, consists of a portion of dough held over from the previous baking. This substance, known to French bakers as levain, is called in Germany Leavened bread. Sauerteig (anglice “sour dough”). The lump of old dough, placed aside in a uniform temperature for some eight hours, swells and acquires an alcoholic odour, becoming the levain de chef of the French bakers. It is then worked up with flour and water to a firm paste double its original volume, when it becomes the levain de première. Six hours later, by the addition of more flour and water its amount is again doubled, though its consistency is made rather softer, and it becomes the levain de seconde. Finally, by another addition of flour and water, the amount is again doubled, and the levain de tous points is obtained. This mass is divided into two parts; one is baked yielding rather dark sour bread, while the other is mixed with more flour and water. This second portion is in turn halved, part is baked, and part again mixed with more flour, this last batch yielding the best and whitest bread. In North Germany leaven is generally used for making rye bread, and loaves baked from a mixture of wheat and rye flour. In the bakery of the Krupp works at Essen, each batch of the so-called Paderborn bread is prepared entirely with leaven from 270 kilos of rye flour (patent quality), 100 of wheat flour (seconds), 2 of buckwheat meal, 6 of salt, 5 of leaven, and one litre of oil. In Vienna leaven is never used for making the rolls and small goods for which that city is famous. Viennese bakers use either brewers’ yeast or a ferment, prepared by themselves, of which the basis is an infusion of hops. Brewers’ yeast is added to the ferment, which takes the form of a very slack dough. With 100 kilos (220.46 ℔) of flour about 17 litres or nearly 2 gallons of ferment are used.

In many parts of Europe, bread is still made using leaven, which is essentially a portion of dough saved from the last baking. This substance, known as levain to French bakers, is called Yeast bread. in Germany Sauerteig (in English “sour dough”). The piece of old dough, set aside at a consistent temperature for about eight hours, expands and develops an alcoholic smell, becoming the levain de chef for French bakers. It is then mixed with flour and water to create a firm paste that doubles in volume, becoming the levain de première. Six hours later, by adding more flour and water, its volume doubles again, although its consistency is made a bit softer, resulting in the levain de seconde. Finally, with another addition of flour and water, its volume doubles once more, producing the levain de tous points. This mixture is split into two parts: one is baked to make a darker sour bread, while the other is mixed with more flour and water. This second part is then halved again; one portion is baked, and the other mixed with more flour, resulting in the best and whitest bread. In North Germany, leaven is typically used to make rye bread and loaves baked from a mix of wheat and rye flour. In the bakery of the Krupp works in Essen, each batch of the so-called Paderborn bread is made entirely with leaven from 270 kilos of rye flour (patent quality), 100 kilos of wheat flour (seconds), 2 kilos of buckwheat meal, 6 kilos of salt, 5 kilos of leaven, and one liter of oil. In Vienna, leaven is never used for making the rolls and small goods for which the city is famous. Viennese bakers either use brewers’ yeast or a ferment they prepare themselves, which is based on a hop infusion. Brewers’ yeast is mixed with the ferment, which takes the form of a very slack dough. For 100 kilos (220.46 ℔) of flour, about 17 liters, or nearly 2 gallons, of ferment is used.

In the original Dauglish process for the manufacture of aerated bread, which was brought into operation in Great Britain in 1859, carbonic acid gas was evolved in a generating vessel by the action of sulphuric acid on chalk, and after purification was Aerated bread. forced at high pressure into water, which was then used for doughing the flour. In this process the flour that had to be made into bread was submitted to the action of the super-aerated water by direct transference. It was found, however, in practice that much difficulty occurred in making the gas admix readily with the flour and water, great pressure being required, and to lessen the difficulties a new process, called the “wine whey,” was introduced. To carry this out, a vat placed on the upper storey of the factory is charged with a portion of malt and flour, which is mashed and allowed to ferment until a weak and slightly acid thin wine is produced; this after passing through the coolers is stored until it is transformed into a vinous whey. This whey is then introduced into a strong cylinder partly filled with water, and is aerated by letting in the gas (now stored in a highly compressed form in bottles), the pressure required being only a quarter of that necessary with the original method. The flour having been placed in the mixers, which are of globular form containing revolving arms, the aerated fluid is admitted, and in a short period the flour and fluid are completely incorporated. By means of an ingenious appliance termed a dough cock, the exact amount of dough for a single loaf of bread is forced out under the pressure of the gas, and by reversing the lever the dough, which expands as it falls into a baking tin, is cut off. Two sacks of flour can be converted with ease into 400 2-lb loaves in forty minutes, whereas the ordinary baker’s process would require about ten hours. At first a difficulty was encountered in the fact that the dough became discoloured by the action of the “wine whey” on the iron, but it was overcome by Killingworth Hedges, who discovered a non-poisonous vitreous enamel for coating the interior of the mixers, &c. It has been claimed for the Dauglish process that it saves the baker risks attendant on the production of carbon dioxide by the ordinary process of fermentation, in that he is no longer liable to have his dough spoilt by variations of temperature and other incalculable factors, the results being certain and uniform. A further claim is the saving of the proportion of starch consumed by conversion into glucose during the process of fermentation. The original objection, that, by the absence of fermentation, those subtle changes which help to produce flavour are lost, is annulled by the use of the wine whey process. The Dauglish process is well suited for producing small goods, such as cakes and scones, where flavour can be artificially imparted by means of currants, flavouring essences, &c. An undoubted advantage of the aerating process of bread-making is adaptability for utilizing flour with unstable gluten, which can thus be made into an excellent quality of bread. For wholemeal bread, too, there is probably no more suitable process than the Dauglish. The strong diastasic action of the cerealin, inevitable in fermentation, is entirely avoided. The Aerated Bread Company have about a hundred depots in London, which are supplied from a central factory.

In the original Dauglish method for making aerated bread, which started in Great Britain in 1859, carbonic acid gas was produced in a generating vessel by reacting sulfuric acid with chalk. After purification, this gas was Airy bread. forced under high pressure into water, which was then used to mix with the flour. In this method, the flour that needed to be turned into bread was directly mixed with the super-aerated water. However, in practice, it was found that it was difficult to mix the gas well with the flour and water, requiring a lot of pressure. To solve this, a new method called “wine whey” was introduced. This process involved a vat located on the upper floor of the factory filled with a mix of malt and flour, which was mashed and left to ferment until a weak, slightly acidic thin wine was produced; after being cooled, it was stored until it became vinous whey. This whey was then added to a strong cylinder that was part-filled with water, and it was aerated by introducing gas (stored in highly compressed bottles), requiring only a quarter of the pressure needed for the original method. Once the flour was placed in mixers, which were bowl-shaped with rotating arms, the aerated liquid was added, and within a short time, the flour and liquid were fully combined. Using a clever device called a dough cock, the exact amount of dough for a single loaf was forced out under gas pressure, and by reversing the lever, the dough, which expanded as it fell into a baking tin, was cut off. Two sacks of flour can be turned into 400 2-pound loaves in forty minutes, while the traditional baker’s method would take about ten hours. Initially, there was an issue with the dough becoming discolored from the wine whey’s interaction with iron, but this was resolved by Killingworth Hedges, who invented a non-toxic vitreous enamel to coat the inside of the mixers, etc. The Dauglish process is said to reduce the baker's risks linked to producing carbon dioxide through traditional fermentation, as it eliminates the unpredictability caused by temperature variations and other factors, resulting in consistent and reliable outcomes. Another advantage is the reduction of starch converted into glucose during fermentation. The original concern that the lack of fermentation would lose the subtle changes needed for flavor has been addressed by the wine whey process. The Dauglish method is ideal for making small items like cakes and scones, where flavor can be artificially added using currants, flavoring essences, etc. One clear benefit of the aerating method of bread-making is its adaptability to use flour with unstable gluten, resulting in high-quality bread. For wholemeal bread, the Dauglish method is likely the most suitable option. It completely avoids the strong diastatic action of cerealin that occurs during fermentation. The Aerated Bread Company has about a hundred depots in London, supplied from a central factory.

The essence of the bread-making process recently invented by Serge Apostolov is the combination of a flour mill and bakery. The wheat, after a preliminary cleaning, is ground into flour by a mill composed of metal disks dressed, that Apostolov process. is furrowed, very much like the surfaces of a pair of mill-stones. The disks are not set to grind very close, because it is desired, by minimizing friction, to keep the meal cool. From the middlings obtained by this milling process about 10% of bran is separated, and the remainder of the middlings is treated by a peculiar process, akin to mashing, termed “lixiviation.” The middlings are saturated with tepid water containing a small proportion of yeast, which causes a certain amount of fermentation. It is claimed that by this process a solution is obtained of the floury constituents of the middlings. From the vats the solution is poured on an inclined sieve which has a gentle reciprocating motion. The floury particles pass through the meshes, while the bran tails over the sieve; the proportion of the wheat berry thus rejected is given as about 2½%. On the other hand, the milky-looking solution, called “lactus,” is caught in a special vessel, and delivered by a shoot into a trough, which may be 471 either a mechanical kneader of an ordinary trough. This lactus takes the place of the ordinary sponge. The flour is added in the proportion necessary to make the required batch and the whole mass is doughed, either by hand or power. The resultant dough is moulded in the ordinary way into loaves, which are baked in due course. The advantages claimed for the process are that it permits of the utilization in bread-making of about 87½% of the wheat berry, that the resultant bread is fairly white in colour and is agreeable in flavour, and that it is extremely simple and provides a ready and cheap means of flour-making.

The core of the bread-making method recently developed by Serge Apostolov combines a flour mill with a bakery. The wheat is first cleaned and then ground into flour by a mill that uses metal disks with grooves, similar to the surfaces of traditional millstones. The disks are not set too close together because the goal is to keep the flour cool by minimizing friction. From the middlings produced in this milling process, about 10% of the bran is separated, while the rest undergoes a unique treatment similar to mashing, known as “lixiviation.” The middlings are soaked with warm water mixed with a small amount of yeast, which initiates some fermentation. It's said that this process creates a solution of the floury components of the middlings. The solution is then poured onto an inclined sieve that moves gently back and forth. The flour particles move through the mesh, while the bran remains on top; it's estimated that around 2½% of the wheat berry is discarded. Meanwhile, the milky solution, referred to as “lactus,” is collected in a special container and delivered through a chute into a trough, which can be either a mechanical mixer or a regular trough. This lactus acts as a substitute for the traditional sponge. Flour is added in the right amount to make the desired batch, and the entire mixture is kneaded, either by hand or mechanically. The resulting dough is shaped into loaves as usual and baked at the appropriate time. The claimed benefits of this method include the ability to use about 87½% of the wheat berry in bread-making, resulting in bread that is relatively white and flavorful, while also being simple and providing an easy and affordable way to make flour.

Machine Bakeries.—Bread-baking, though one of the most important of human industries, was long carried out in a most primitive manner, and machinery is still practically unknown in the bulk of British bakehouses. The reasons for this apparently anomalous condition of things are not very far to seek. Bread, unlike biscuits, is a food quite unfitted for long storage, and must be consumed within a comparatively short time of being drawn from the oven. Hence the bread-baker’s output is necessarily limited to a greater or lesser degree. This will be the more apparent when it is considered that the cost of distributing bread is high relatively to the profits to be realized. A baker’s bread trade is therefore usually limited to local requirements, and trading on a small scale he has less inducement to lay out capital on the installation of machinery than other classes of manufacturers. But there are now many machine bakeries (known in Scotland as bread factories), both in London and in other parts of Great Britain, where the manufacture of bread is carried out more or less on a large scale. The evolution of the machine bakery has been slow, and the mechanical operations of the bakehouse were long limited to the mixing of the sponge and the kneading of the dough, but now the work of the bakery engineer extends over almost every operation of bread-making.

Machine Bakeries.—Bread-making, while one of the most essential human industries, was performed in a very basic way for a long time, and machinery is still mostly absent in the majority of British bakeries. The reasons for this seemingly odd situation are fairly straightforward. Unlike biscuits, bread is not suitable for long storage and needs to be eaten within a relatively short time after coming out of the oven. As a result, a baker's production is necessarily limited to some extent. This becomes clearer when considering that the expense of distributing bread is high compared to the profits that can be made. Consequently, a baker's bread business is typically confined to local needs, and by operating on a smaller scale, there’s less motivation to invest in machinery compared to other types of manufacturers. However, there are now many machine bakeries (referred to as bread factories in Scotland), both in London and elsewhere in Great Britain, where bread production is done on a larger scale. The development of machine bakeries has been gradual, and for a long time, the mechanical processes in the bakery were mostly restricted to mixing the sponge and kneading the dough, but nowadays, the work of the bakery engineer encompasses nearly every step of bread-making.

A bread-baking plant should be installed in a building of at least two storeys. The ground floor may be used for the shop, with possibly a bread-cooling and delivery room at the rear. The flour may be hoisted to an attic at the top of the building, or to the top floor; in any case there must be sufficient floor space to accommodate the flour sacks and bags. Underneath the floor of the flour store should be installed a flour sifter, a simple apparatus consisting essentially of a hopper through which the flour enters a cylinder with a spiral brush, by which it is thoroughly agitated previously to passing through one or more sieves placed under the brush. A sack of flour may be passed through this sifter in a couple of minutes, the operation freeing the flour from lumps and pieces of string or other foreign substances which may have found their way into the sack. The sifter may also be combined with a blender or mixer, so that the baker may by its means thoroughly blend different flours in any desired proportion. The operation of blending is usually effected by a revolving blade of suitable design or by a worm conveyor placed underneath the sieve or sleeve. From the sifter and blender the flour descends by a sleeve into the dough kneading machine on the floor below. But in cases where it is desired merely to sift and blend flour ready for future use, it may be received in a worm and elevated again to the storage floor by an ordinary belt and bucket elevator. The water required for doughing purposes is contained in an iron tank, fixed to the wall in convenient proximity to the dough kneader. This tank, known as a water attemperating and measuring tank, is provided with a gauge and thermometer, and from it the exact quantity of water needed for doughing can be rapidly drawn off at the desired temperature. The cold water supply may be let into the tank at the top, and the hot water supply at the bottom, the idea being that each supply shall permeate the whole mass by gravity, the hot water ascending and the cold descending. The chief types of dough kneader will be described subsequently, but here it should be noted that not only have machines been devised for cutting out the exact sizes of dough required for small goods, such as buns and tartlets, but that the operations of weighing and dividing dough for quartern and half-quartern loaves can also be neatly and economically effected by machinery. Further, at least two machines have been built which successfully mould loaves (of simple shape), and the problem of moulding household bread by machinery has certainly been solved, but whether delicate twists and other fancy shapes could be equally well moulded mechanically is less certain.

A bread-baking facility should be set up in a building that has at least two stories. The ground floor can be used for the shop, possibly with a bread-cooling and delivery area in the back. The flour can be lifted to an attic or the top floor; in any case, there must be enough space to hold the flour sacks and bags. Underneath the flour storage area, there should be a flour sifter installed, which is basically a simple machine that includes a hopper where the flour enters a cylinder with a spiral brush. This brush thoroughly mixes the flour before it goes through one or more sieves located under the brush. A sack of flour can be sifted in just a couple of minutes, removing lumps and pieces of string or other unwanted items that might have gotten into the sack. The sifter can also be connected to a blender or mixer, allowing the baker to mix different types of flour in whatever proportions they want. The blending is usually done with a specially designed rotating blade or a worm conveyor placed beneath the sieve or sleeve. From the sifter and blender, the flour falls through a sleeve into the dough kneading machine on the floor below. If the goal is simply to sift and mix flour for later use, it can be collected in a worm and then elevated back to the storage floor using a standard belt and bucket elevator. The water needed for making dough is stored in an iron tank mounted on the wall, conveniently located near the dough kneader. This tank, known as a water tempering and measuring tank, has a gauge and thermometer, allowing the baker to draw off the exact amount of water needed for dough at the right temperature quickly. Cold water can be added to the top of the tank, while hot water can go in at the bottom, allowing each supply to blend throughout the tank through gravity, with hot water rising and cold water sinking. The main types of dough kneaders will be explained later, but it's important to note that machines have been created not just for cutting dough into exact sizes for small items like buns and tartlets, but also for weighing and dividing dough for quarter and half-quarter loaves in a neat and cost-effective way. Additionally, at least two machines have been built that can successfully mold loaves (of basic shapes), and while the challenge of molding household bread by machine has been addressed, it’s still uncertain whether more intricate shapes and designs can be easily molded mechanically.

The machine bakery, however complete, is not likely ever to be quite automatic and continuous like a modern flour mill, where the plant is connected throughout and virtually forms one machine (see Flour and Flour Manufacture), and though the engineer has at least managed to effect every operation of the bakehouse by mechanical means, it is not yet possible to shoot a sack of flour into the hopper of the sifter on the top floor, and to turn it into bread, without any human intervention whatever, though as things are, the moulded dough can be put into the oven without undergoing actual contact with human hands. In practice, some of the machines mentioned above are often dispensed with, even in so-called machine bakeries. The flour sifter and blender is indeed found in many bakeries where mechanical kneaders are unknown, while not in all machine bakeries would be found dough weighers and dividers, still less moulding machines. The economical side of the argument on behalf of machinery is presented in the familiar shape that a properly equipped machine bakery can turn out better work at a lower cost (by dispensing with labour), or at any rate can carry on a bigger trade with the same staff. There is plausibility in this argument, but it must be admitted that innumerable bakeries of capacities varying from 10 to 20 sacks per week are carried on more or less successfully without machinery of any kind, beyond perhaps a sifter or blender. Moreover, some of these bakehouses produce bread which can hardly be improved on.

The machine bakery, no matter how advanced, is unlikely to ever be fully automatic and continuous like a modern flour mill, where everything is interconnected and essentially functions as one machine (see Flour and Flour Manufacture). Although the engineer has managed to automate every process in the bakehouse, it’s still not possible to simply dump a sack of flour into the sifter on the top floor and turn it into bread without any human involvement at all. However, currently, the molded dough can be placed in the oven without ever touching human hands. In practice, some of the machines mentioned earlier are often skipped, even in so-called machine bakeries. The flour sifter and blender are indeed found in many bakeries where mechanical kneaders don’t exist, and not every machine bakery has dough weighers and dividers, let alone molding machines. The economic argument for machinery is commonly presented as the idea that a well-equipped machine bakery can produce higher quality products at a lower cost (by reducing labor), or at least can handle a larger volume of business with the same staffing. While there is some truth to this argument, it must be recognized that many bakeries, with capacities ranging from 10 to 20 sacks per week, operate more or less successfully without any machinery at all, except perhaps for a sifter or blender. Moreover, some of these bakehouses produce bread that is nearly unbeatable.

One advantage claimed for flour sifters, besides removing the impurities, is that by thoroughly aerating flour they cause it to become more “lively,” in which condition it kneads more readily. It is also quite possible that the air which is thus incorporated with the dough has a stimulating effect on the yeast, causing a more energetic fermentation. A strong argument in favour of dough kneaders is their hygienic aspect. It is agreed that the operation of dough stirring by hand, since it involves severe labour conducted in a heated atmosphere, must be liable to cause contamination of the dough through emanations from the bodies of the operatives. In well-managed bakeries the utmost personal cleanliness on the part of the staff is exacted, but the unpleasant contingency alluded to is certainly possible. It is also contended that the use of machinery for dough kneading and batter whisking will ensure better work, in the sense that the mass under treatment will be more thoroughly worked by mechanically driven arms of iron or steel than by human limbs, liable to weariness and fatigue. The better worked the dough, the greater its power of expansion, and consequently the greater its bread-making value.

One advantage of using flour sifters, in addition to removing impurities, is that they fully aerate the flour, making it more “lively,” which helps it knead more easily. It's also possible that the air mixed into the dough stimulates the yeast, leading to more vigorous fermentation. A strong point in favor of dough kneaders is their hygienic benefits. It's commonly accepted that kneading dough by hand, which requires intense labor in a warm environment, can lead to contamination from the workers’ bodies. In well-run bakeries, staff are required to maintain the highest levels of personal cleanliness, but the potential for contamination remains. Additionally, it’s argued that using machines for kneading dough and whisking batter produces better results, as mechanically driven arms made of iron or steel can work the mixture more thoroughly than human limbs, which can tire and become fatigued. The better the dough is worked, the more it can expand, increasing its value for bread-making.

The most widely known machine used in connexion with bread-baking, next to the sifter, is the dough kneadcr. The dough kneader is no new invention. As far back as 1760, a kind of dough kneader was constructed in France by one Salignac. It Dough kneaders. is described as consisting of a trough, inside which the dough was agitated by arms shaped somewhat like harrows. This machine is said to have been tested before a committee of the Academy of Sciences, who reported that in their presence dough had been prepared in fourteen to fifteen minutes. The bread baked from this dough is said to have been most satisfactory, but for some reason the machine never came into general use. For one thing, the power problem would have been almost insuperable to a baker in the France of those days. In general design this kneader approximated to the machines which have since done good work in bakeries all the world over. Salignac was quickly followed by another inventor, Cousin, also a Frenchman, who brought out in 1761, or thereabouts, a dough-kneading machine, which, however, had no better success than its predecessor. The first kneading machine which appears to have been in actual use in a bakery was constructed by a Paris baker of the name of Lembert, after whom it was called the Lembertine. Lembert is said to have been experimenting with this apparatus as early as 1796. Be that as it may, it was not brought out till 1810, when a prize of 1500 francs (£60) was offered by the Société d’Encouragement pour l’Industrie Nationale. This reward was won by Lembert, and his machine thereupon came into a certain amount of use in France. It is remarkable that France long remained the only country in which dough kneaders were employed, but even there their use was limited.

The most well-known machine used in connection with bread baking, besides the sifter, is the dough kneader. The dough kneader isn’t a new invention. As far back as 1760, a type of dough kneader was created in France by someone named Salignac. It’s described as having a trough, where the dough was mixed by arms shaped a bit like harrows. This machine was reportedly tested in front of a committee from the Academy of Sciences, who stated that dough was prepared in fourteen to fifteen minutes in their presence. The bread baked from this dough was said to be very good, but for some reason, the machine never became widely used. One issue was that the power source would have been nearly impossible for a baker in France at that time. In general design, this kneader was similar to the machines that have since been successfully used in bakeries around the world. Salignac was soon followed by another inventor, Cousin, also a Frenchman, who introduced a dough-kneading machine around 1761, but it didn’t fare any better than its predecessor. The first kneading machine that seems to have actually been used in a bakery was made by a Paris baker named Lembert, after whom it was called the Lembertine. Lembert is said to have been experimenting with this device as early as 1796. Regardless, it wasn’t introduced until 1810, when a prize of 1500 francs (£60) was offered by the Société d’Encouragement pour l’Industrie Nationale. Lembert won this reward, and his machine then started to see some use in France. It's notable that for a long time, France was the only country using dough kneaders, but even there, their use was limited.

The Fontaine, another French kneader, called after its inventor, was first made in 1835. It had a certain success, but has long passed out of use. It appears to have been a copy to a great extent of the Lembertine. The objection against both these machines was that their blades, while exercising a mixing action, were deficient in kneading effect. Probably the first machine which achieved the task of efficiently replacing the work of human arms in sponge breaking and dough kneading was the Boland kneader. This was also a French machine, and dates back to about the middle of the 19th century. It is believed to have been first used in the Scipion bakery in Paris. It consists essentially of a trough, inside which revolve a pair of blades so arranged as to work somewhat like alternate screws: it is claimed for these blades that their action has the effect of tossing the dough backwards and forwards when it is slack, and of drawing it out when it happens to be stiff. It is further claimed that the blades are so shaped that their revolution has the effect of moving the dough from right to left and left to right in the trough. The machine is geared to give two speeds, the faster being suitable for sponge setting, while the slow and most powerful speed is intended for the doughing. The Boland machine has been widely adopted in other countries than France, and was certainly one of the first dough kneaders to be used in the United Kingdom. It was installed in the great Boland bakery in Dublin, where it proved a great success. The proprietor of this bakery, with which was also connected a flour mill, is said to have had his attention first drawn to this machine by the fact that its inventor was his namesake, though no relative.

The Fontaine, another French kneader named after its inventor, was first created in 1835. It saw some success, but has long been out of use. It seems to have been largely based on the Lembertine. The issue with both of these machines was that their blades, while providing a mixing action, lacked effective kneading capability. Likely the first machine to successfully replace manual labor in sponge breaking and dough kneading was the Boland kneader. This was also a French invention and dates back to around the mid-19th century. It's believed to have been first used in the Scipion bakery in Paris. It mainly consists of a trough with a pair of blades inside that work similarly to alternate screws: these blades are said to toss the dough back and forth when it's slack and stretch it out when it's stiff. It's also claimed that the blades are designed so their rotation moves the dough from side to side in the trough. The machine has two speed settings; the faster one is suitable for sponge setting, while the slower and more powerful speed is for kneading dough. The Boland machine has been widely used outside of France and was definitely one of the first dough kneaders adopted in the United Kingdom. It was installed in the large Boland bakery in Dublin, where it became very successful. The bakery's owner, who also had a flour mill, is said to have been drawn to the machine because its inventor shared his last name, though they were not related.

The Deliry-Desboves dough kneader, also of French origin, and in general use in France, consists essentially of a cast iron trough, shaped somewhat like a basin, and turning on a vertical axis. The kneading arms inside the trough are shaped after the pattern of a lyre, and have the effect of first working up and then dividing the dough right through the kneading process. Two helical blades, 472 which also form part of the mechanism, serve to draw out and aerate the dough, as effectively, it is claimed, as can be done by the most skilled operative. The force of the kneading operations can be regulated without stopping the machine. A thoroughly kneaded dough can, it is said, be made in this machine in twelve to fifteen minutes.

The Deliry-Desboves dough kneader, which is also from France and widely used there, essentially consists of a cast iron trough shaped somewhat like a basin that rotates on a vertical axis. The kneading arms inside the trough are designed like a lyre, and they both work the dough and divide it throughout the kneading process. Two helical blades, 472 that are part of the mechanism, help pull out and aerate the dough, claiming to do so as effectively as the most skilled workers. The intensity of the kneading can be adjusted without stopping the machine. Reportedly, a fully kneaded dough can be prepared in this machine in twelve to fifteen minutes.

In Great Britain the type of machine that used to be most in favour was the trough within which the kneading arms worked on horizontal axis. The trough was either open or provided with a lid. The kneading blades were variously shaped, but generally were more or less straight, and were designed to both mix and aerate the dough. In some cases the kneading blades were worked on a single axis, in others two different sets of arms worked on two axes running parallel to one another. Generally the kneader was geared to two speeds, the fast motion being most suitable for sponge setting, and the earlier stages of dough-making, while the slower motion was intended to draw out and thoroughly aerate the dough. To discharge the dough, the trough was tilted by means of a worm and worm wheel, the latter being secured to the trough. Several variations of this type of kneader are still in use. The machine known as the “Universal” kneader consists of a trough set horizontally, within which rotate on horizontal axes a pair of blades lying in the same plane. These blades are curved and are geared together by means of differential spur wheels, with the object of running the two spindles at unequal speeds. The bottom of the trough is divided into two semi-cylindrical cavities, separated by a ridge. Each blade plunges into its own cavity, and the action of these arms tends, while pressing the dough against the sides and base of the trough, to bring it quickly back towards the centre. The differential speed has the advantage of effecting a more thorough mixing of the dough, as it brings together pieces of dough which have not yet been mingled, the blades pushing the dough from one cavity to the other. To hasten the kneading process it is desirable occasionally to reverse the motion by a turn of a hand wheel on the same shaft as the two pulleys. This wheel governs all the motions of the blades. The trough, which is set low, is tilted over, when the dough is ready, by an endless chain operated by a hand winch. The effort required for this operation is very slight, as the trough is balanced by two weights. The action of tilting does not interfere with the blades, which continue rotating until stopped by the hand wheel. The Universal kneader was designed to imitate as closely as possible the action of a pair of skilled human arms and hands, but of course works at a much greater speed.

In Great Britain, the most popular type of machine used to be the trough, where the kneading arms operated on a horizontal axis. The trough could be open or have a lid. The kneading blades came in various shapes, but were usually straight, designed to mix and aerate the dough. In some cases, the kneading blades operated on a single axis, while in others, two sets of arms worked on parallel axes. Typically, the kneader had two speed settings; the fast speed was best for setting sponge and the early stages of dough-making, while the slow speed was meant to stretch and thoroughly aerate the dough. To release the dough, the trough was tilted using a worm and worm wheel, which was attached to the trough. Several variations of this type of kneader are still in use today. The machine known as the "Universal" kneader features a horizontally set trough, where a pair of blades rotate on horizontal axes within the same plane. These blades are curved and connected by differential spur wheels to enable them to run at different speeds. The bottom of the trough is divided into two semi-cylindrical compartments, separated by a ridge. Each blade works within its own compartment, pressing the dough against the sides and base of the trough while quickly pulling it back toward the center. The differential speed helps achieve a more thorough mixing of the dough by combining unblended pieces, as the blades push the dough from one compartment to the other. To speed up the kneading process, it’s sometimes beneficial to reverse the motion using a hand wheel connected to the same shaft as the two pulleys. This wheel controls all the movements of the blades. The trough, which is set low, is tilted when the dough is ready by an endless chain operated by a hand winch. The effort needed for this task is minimal, as the trough is balanced by two weights. The tilting action does not interfere with the blades, which continue rotating until they're stopped by the hand wheel. The Universal kneader was designed to mimic the actions of skilled human arms and hands as closely as possible, but it operates at a much greater speed.

Another form of dough mixer which is extensively used consists simply of a drum made of sheet steel supported by two A-shaped standards at a sufficient height from the floor to allow a trough to be run underneath to receive the dough when ready for the moulding board. In this drum are two tight-fitting doors. The interior is fitted with no blades or knives, but presents a free cylindrical space, with the sole exception that, set not very far from the circumference, there are several fixed rods passing from one side of the drum to the other. These act as mixers of the dough. The door is opened and the flour and water poured in, whereupon the door is again fastened and the drum is made to rotate. As the rotation proceeds, the dough begins to form, and being lifted up by the revolving drum falls by its own weight. In this process, which is repeated again and again, the dough is caught by and tumbled over by the rods, which act as mixers and take the place of the revolving arms of the trough kneader. The kneading action of the rotating arms is absent, but the steady tumbling over these rods appears to have a thorough mixing effect, and the dough is discharged from the drum in good condition for moulding. The time occupied for making a dough by this apparatus varies from four to six minutes. The advantages claimed for this machine are that it consumes comparatively little power, and that there is not so much danger of “felling” or over-kneading dough as in some of the machines with revolving blades. The compactness of this rotating drum mixer, often known as the Rotary mixer, recommends it on shipboard and in other places where space is limited.

Another type of dough mixer that's widely used is simply a drum made of sheet steel, supported by two A-shaped frames raised high enough from the floor to allow a trough to fit underneath for collecting the dough when it's ready for the molding board. This drum has two tight-fitting doors. Inside, there are no blades or knives, just an open cylindrical space, except for several fixed rods that stretch across the drum not far from the edge. These rods serve as mixers for the dough. The door is opened, and flour and water are poured in, then the door is closed again, and the drum starts to rotate. As it spins, the dough begins to form and is lifted by the rotating drum before falling back down due to its own weight. This process is repeated multiple times, with the rods catching and tumbling the dough, acting as mixers and replacing the rotating arms of a trough kneader. The kneading action of those arms is absent, but the continuous tumbling over the rods seems to mix everything thoroughly, and the dough is discharged from the drum in good condition for molding. Making dough with this machine takes about four to six minutes. The benefits of this machine include its relatively low power consumption and a reduced risk of "felling" or over-kneading the dough, which can happen with some machines that use rotating blades. The compact design of this rotating drum mixer, often referred to as the Rotary mixer, makes it ideal for use on ships and in other spaces where room is limited.

In the earlier days of machine bakeries the accurate dividing of dough, and still more the moulding of loaves by mechanical means, was considered an unattainable ideal. The first step in this direction was made by the Lewis-Pointon dough Dough dividers and moulders. divider and weigher, which was intended for dividing and weighing out dough ready for the moulding table. In an ordinary way a baker who wishes to bake a batch of half-quartern or 2-℔ loaves scales off 2 ℔ 2 oz. of dough for each loaf. The 2 oz. are a sort of insurance against light weight. The evaporation of moisture from dough in the oven is bound to reduce to some extent the weight of the baked loaf, but with normally baked bread, 2 ℔ 2 oz. in the case of half-quarterns, and 4 ℔ 4 oz. in the case of quartern loaves, is sufficient to ensure full weight. As the accurate scaling of dough requires some pains and trouble, it would be surprising if hand scaling were always accurate. The Lewis-Pointon machine can, it is claimed, be set to turn out lumps of dough of the exact weight required either for 1-℔, 2-℔, or 4-℔ loaves. The apparatus does not measure the dough by weight but by volume by an ingenious piston arrangement. The machine when first put on the market was a little complicated, but its mechanism has since been simplified. It has been successfully worked on doughs of all descriptions, ranging from the tightest to those made with 20 gallons of water to the sack. The same firm which brought out this dough divider has also produced a dough-moulding machine, which has a wide range of work. In this apparatus the dough is introduced between a trough and a revolving table at a point on the outer periphery of the latter. The order of things observed in hand moulding is here reversed, as the trough, unlike the hand, is fixed, while the table revolves around a vertical axis. This table is sharply coned, and can be made to work the dough as much or as little as may be required. In working dough for tin or Coburg loaves only one trough is used, but for cottage loaves two parallel troughs are fitted, one taking the lower and the other the upper half of the loaf. In the latter case, a single piece of dough is fed into the machine and passed through an automatic splitter, the two portions being automatically carried into the troughs and simultaneously delivered at the other side of the machine ready to be put together. With doughs which require “handing-up,” two machines may be used for moulding, the dough being automatically fed from the divider to the handing-up machine, and after a short proof passed through the finisher. But the moulding machine may also be used as a “hander-up.”

In the early days of machine bakeries, accurately dividing dough and, even more so, shaping loaves mechanically was seen as an impossible dream. The first step toward this goal was the Lewis-Pointon dough divider and weigher, designed to divide and weigh dough for the molding table. Typically, a baker who wants to bake a batch of half-quartern or 2-pound loaves would measure out 2 pounds 2 ounces of dough for each loaf. The extra 2 ounces serve as a kind of insurance against underweight. Some moisture will evaporate from the dough in the oven, reducing the weight of the baked loaf, but for normally baked bread, 2 pounds 2 ounces for half-quarterns and 4 pounds 4 ounces for quarter loaves is enough to guarantee full weight. Since accurately measuring dough takes effort and care, it’s not surprising that hand scaling can be inconsistent. The Lewis-Pointon machine claims it can be set to produce exact dough portions for 1-pound, 2-pound, or 4-pound loaves. Instead of measuring dough by weight, it does so by volume using a clever piston mechanism. When it first came out, the machine was somewhat complicated, but its design has since been simplified. It has been effectively used with all types of dough, from very stiff to those made with 20 gallons of water per sack. The same company that developed this dough divider also introduced a dough-molding machine with a broad range of capabilities. In this machine, the dough is fed between a trough and a rotating table at a point on the outer edge of the table. This setup flips the typical hand molding process on its head: the trough is stationary, while the table rotates around a vertical axis. The table has a sharp cone shape and can work the dough as much or as little as needed. For moldings like tin or Coburg loaves, only one trough is used, but for cottage loaves, there are two parallel troughs—one for the lower half and another for the upper half of the loaf. In this case, a single piece of dough enters the machine, gets split automatically, and both portions are carried into the troughs and delivered simultaneously on the other side, ready to be assembled. For doughs that need “handing-up,” two machines can be employed for molding, with the dough automatically transferred from the divider to the handing-up machine and then through the finisher after a brief proof. However, the molding machine can also function as a “hander-up.”

Another ingenious dough moulder, known as the Baker-Callow, works on a rather different principle. Here the pieces of dough coming from the divider are fed into the moulder by a canvas band, and are worked between a large cylindrical roller and a vertically running canvas and leather belt. To prevent pieces from dropping through, and to assist the moulding process, a smaller roller is placed under and between the cylindrical roller and canvas belt. A wooden puncher also assists in working the loaves, which are finished by being rolled between a band and a special shaped wooden moulding. This machine delivers the dough in spherical shaped pieces. If intended for cottage bread they are at once placed on the dough table at the side, and one piece is put on the top of the other ready for the oven. It is claimed the machine will deal equally well with large and small pieces at the same time, so that the tops and bottoms can be made together. Should the machine be intended for tinned bread, a special attachment is used, into which the spherical pieces are delivered from the machine and rolled into cylindrical shapes, ready to be dropped into the pan. A capacity of sixty loaves per minute is claimed for this moulder.

Another clever dough moulder, called the Baker-Callow, works on a different principle. Dough pieces from the divider are fed into the moulder by a canvas belt and processed between a large cylindrical roller and a vertically running canvas and leather belt. To prevent pieces from falling through and to help with the moulding process, a smaller roller is positioned underneath and between the cylindrical roller and canvas belt. A wooden puncher also aids in shaping the loaves, which are completed by being rolled between a band and a specially shaped wooden mould. This machine produces the dough in spherical pieces. If it's meant for cottage bread, they are immediately placed on the dough table beside it, stacking one piece on top of the other, ready for the oven. It's said that the machine can handle both large and small pieces at the same time, allowing the tops and bottoms to be made together. If the machine is designed for tinned bread, a special attachment is used, where the spherical pieces are shaped into cylindrical forms, ready to be placed in the pan. This moulder is said to have a capacity of sixty loaves per minute.

Ovens.—The ordinary baker’s oven is a vaulted chamber, about 10 ft. in length, by 8 ft. in width and 30 in. in height; it is constructed of brick or stone, and has a small door in front through which the oven is charged (by means of a “peel” or long wooden shovel) and the batch withdrawn. The furnace and fire-grate are often placed at the side of the oven door, but with the oldest ovens, which were heated by wood, there generally was only one door for the fuel and for the bread. Whether the furnace is heated by coal, as is usual in England, or by coke, as is often the case in Scotland, the oven mouth remains in the bakehouse itself; hence the stoking and scuffling must be carried out within the bakehouse. This is in many ways objectionable. For one thing, the fuel must almost of necessity be kept in the bakehouse itself, and it is obvious that the products of combustion are liable to get into the oven. In the old type of oven a flue was frequently placed on the other side of the furnace door, both furnace and flue being on the front of the oven. After firing the furnace, the oven is allowed to “lie down” for a certain time, and secure an even distribution of heat. The furnace and flue are then shut, and the oven charged, the batch being baked by the heat stored within the oven chamber. With ovens of this type, each batch of bread requires a separate firing. This kind of oven has undergone several improvements of detail, but the principle of internal heating, that is, of firing the furnace inside the bakehouse, has remained unchanged.

Ovens.—A typical baker’s oven is a vaulted chamber that's about 10 feet long, 8 feet wide, and 30 inches high. It's made of brick or stone and has a small door at the front where the oven is filled (using a "peel" or long wooden shovel) and where the baked goods are taken out. The furnace and fire-grate are usually located next to the oven door, but in the oldest ovens, which used wood for heat, there was generally only one door for both the fuel and the bread. Whether the furnace is heated with coal, which is common in England, or with coke, which is often used in Scotland, the oven opening is still in the bakehouse; therefore, replenishing fuel and managing the fire must be done inside. This setup has several drawbacks. For one, the fuel typically has to be stored in the bakehouse, and it's clear that combustion byproducts can enter the oven. In older ovens, a flue was often placed on the opposite side of the furnace door, with both the furnace and flue at the front of the oven. After heating the furnace, the oven is allowed to “rest” for a period to ensure even heat distribution. The furnace and flue are then closed, and the oven is loaded, with the batch being baked using the heat that has built up inside the oven chamber. With these kinds of ovens, each batch of bread needs a separate firing. This type of oven has seen several minor improvements, but the fundamental principle of internal heating, meaning firing the furnace inside the bakehouse, has not changed.

A new era in bakers’ ovens began about the middle of the 19th century with the introduction of the “Perkins” oven, a system which, with slight modifications, has persisted till to-day. In this oven the baking chamber is heated by steam pipes. The latter consist of tubes of iron or mild steel which are partly filled with water and are hermetically sealed by welded ends. The pipes are arranged in two parallel rows, the one at the crown and the other at the sole of the oven. The pipes project at one end into the furnace, which is set at the back of the oven and is usually outside the bakehouse. This is termed an externally heated oven. As the ends of the pipes get red hot the water is converted into superheated steam, which being under high pressure soon raises the chamber to baking heat, say 450° to 500° F. In an oven of this description the heat can be continuously maintained, and batch after batch can be baked without refiring. The only drawback is that a flash heat cannot be raised. In another type of externally fired oven the heat is conveyed by flues placed at the bottom and top of the oven, which discharge into a chimney. Excellent results have been attained with ovens of this kind. The distribution of the heat can be well regulated; for instance, it is quite possible to build ovens to be cooler at the back than front, an arrangement which is useful when the bread is withdrawn by means of a hand peel. As the baker has to withdraw each loaf one at a time, it is clear that the withdrawal of the batch through the oven door must take time, probably not less than half-an-hour. Hence the bread drawn from near the oven’s mouth may be underbaked as compared with that at the back of the chamber. The latter, on the other hand, may be overbaked and deficient in weight.

A new era in bakers’ ovens started around the middle of the 19th century with the introduction of the “Perkins” oven, a system that, with a few updates, is still used today. In this oven, the baking chamber is heated by steam pipes. These pipes are made of iron or mild steel, partially filled with water, and sealed at the ends by welding. The pipes are set up in two parallel rows, one at the top and the other at the bottom of the oven. One end of the pipes extends into the furnace, which is located at the back of the oven and is usually outside the bakehouse. This is known as an externally heated oven. As the ends of the pipes heat up, the water turns into superheated steam, which, under high pressure, quickly raises the chamber temperature to baking heat, around 450° to 500° F. With this type of oven, heat can be maintained continuously, allowing batch after batch to be baked without needing to refire. The only downside is that a sudden surge of heat can’t be created. In another kind of externally fired oven, heat is transferred through flues at the bottom and top of the oven, which vent into a chimney. Great results have been achieved with these ovens. The heat distribution can be well regulated; for example, ovens can be designed to be cooler at the back than at the front, which is helpful when withdrawing bread using a hand peel. Since the baker has to pull out each loaf individually, it’s clear that removing a batch through the oven door takes time, probably at least half an hour. Therefore, the bread taken from near the oven entrance may be underbaked compared to that at the back of the chamber. Conversely, the bread at the back may be overbaked and lacking in weight.

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By means of a draw-plate, however, an oven can be expeditiously charged. This appliance consists of a sliding plate or tray, mounted on wheels running on rails, which is drawn out of the oven loaded with bread, and then returned. The plate itself is often made of iron, but one well-known oven is fitted with a withdrawable iron frame, in which are laid, edge to edge, tiles of a special make, which are cemented in place, and form a continuous baking surface. This seems an excellent arrangement, as the baker has all the advantages of a brick oven, that is to say, his bread is baked both on top and bottom by heat evolved from tiled surfaces, and the undoubted drawbacks incidental to baking bread on an iron surface are avoided. A draw-plate fitted to an oven capable of baking a batch made from a sack (280 ℔) of flour can be run out, charged and run in again, in about two minutes. The draw-plate has the incidental advantage, by expediting the loading and discharge of the oven, of ensuring a more uniform baking of the batch, and therefore of minimizing the loss of weight. Some bakers have gone so far as to estimate the saving in this respect from the use of a draw-plate at half an ounce per 2-lb loaf. With decker ovens a double draw-plate may be used, the feet of the pedestal supporting the upper draw-plate running on a rail outside, but parallel to the rail on which the lower draw-plate runs. This arrangement, however, is more applicable to small than large ovens. Or the lower oven may be fitted with a draw-plate while the upper oven is served with a peel. The draw-plate being at a lower level than the sole of an ordinary oven, the upper deck may be worked with a peel without much difficulty.

With a draw-plate, an oven can be quickly loaded. This tool features a sliding plate or tray on wheels that runs on rails, which is pulled out of the oven filled with bread and then pushed back in. The plate is usually made of iron, but a well-known oven is equipped with a removable iron frame that holds specially-made tiles, laid edge to edge and cemented in place, creating a continuous baking surface. This setup is great because it gives the baker all the benefits of a brick oven—meaning that the bread is baked evenly on top and bottom by heat from the tiled surfaces—while avoiding the downsides of using an iron surface. A draw-plate designed for an oven that can bake a batch from a sack (280 lbs) of flour can be pulled out, loaded, and slid back in about two minutes. One added benefit of this draw-plate is that it speeds up the loading and unloading process, resulting in more even baking and reduced weight loss. Some bakers estimate that using a draw-plate saves about half an ounce per 2-lb loaf. In decker ovens, a double draw-plate can be employed, with the legs of the pedestal supporting the upper draw-plate running on a parallel rail outside the rail of the lower draw-plate. However, this configuration is better suited for small ovens rather than large ones. Alternatively, the lower oven can use a draw-plate while the upper oven is operated with a peel. Since the draw-plate is at a lower level than the base of a typical oven, it's easy to work the upper deck with a peel.

The decker oven is, as its name implies, an oven built over another oven: in fact, sometimes a tier of three ovens is employed, placed one above the other. The object is to secure a double or treble baking surface without a very much larger outlay on fuel than would be necessary for one oven. It is easy to understand that a double or three decker oven might be constructed under conditions where it would be impossible to place two or three ordinary ovens side by side. Practical bakers are somewhat divided as to the actual economy of the decker system; possibly it is a question of management. The upper oven is heated by the gases which have passed under the oven beneath. A double-decker oven on the flue principle could be heated by three flues, one beneath the lower oven, another passing between the crown of the lower and the sole of the top oven, and the third over the crown of the upper oven. If a third oven were built over the second, then a fourth flue would pass over the crown of the third and top oven. In such an arrangement of flues the distribution of heat to the ovens would be fairly equal, but no doubt the lower oven would be the hottest. In addition to the flues, which should be straight and accessible for cleaning, there ought also to be auxiliary flues by which heat may be allowed to pass dampers to the upper portions of the series of ovens. In this way the heat of the upper oven or ovens can be regulated independently to a great extent of the bottom oven. The power of regulating the heat of the ovens is very necessary, because a baker doing what is called a mixed trade, that is to say, producing cakes and pastry in addition to bread, must work his ovens at varying temperatures. Cakes cannot be baked at the heat (about 450° F.) required by a batch of household bread. The richest fancy goods, such as wedding and Christmas cakes, require the coolest ovens. Flue ovens are best worked with coke, as coal is apt to choke the flues; retort coke is recommended in place of oven coke. An oven should be fitted with some kind of thermal register, and both high-temperature thermometers and pyrometers are used for this purpose.

The decker oven is, as its name suggests, an oven built on top of another oven; sometimes there are even three ovens stacked one above the other. The goal is to create a double or triple baking surface without a significantly higher fuel cost than using just one oven. It's easy to see how a double or triple decker oven could be set up in places where it wouldn’t be possible to fit two or three regular ovens side by side. Bakers have mixed opinions on whether the decker system is truly economical; it might depend on how well it's managed. The upper oven gets heated by the gases that come from the oven below. A double-decker oven using the flue method can be heated by three flues: one under the lower oven, another between the bottom of the upper oven and the top of the lower, and a third over the top oven. If a third oven sits atop the second, there would be an additional flue over it. With this setup, the heat should be distributed fairly evenly, although the lower oven will likely be the hottest. Besides the main flues, which should be straight and easy to clean, there should also be additional flues to allow heat to flow through dampers to the upper ovens. This way, the heat in the upper oven or ovens can be controlled independently from the bottom oven. This temperature control is crucial because a baker who offers a variety of products, such as cakes and pastries alongside bread, needs to run the ovens at different temperatures. Cakes can't be baked at the same heat (around 450°F) needed for regular bread. The richest specialty items, like wedding and Christmas cakes, require cooler ovens. Flue ovens work best with coke, as coal can block the flues; retort coke is preferred over oven coke. An oven should have some type of thermal gauge, and both high-temperature thermometers and pyrometers are used to monitor this.

(G. F. Z.)

BREADALBANE, JOHN CAMPBELL, 1st Earl of (c. 1636-1717), son of Sir John Campbell of Glenorchy, Bart., and of the Lady Mary Graham, daughter of William, earl of Airth and Menteith, was born about 1636. He took part in the abortive royalist rising under Glencairn in 1654, and was one of those who urged Monk to declare a free parliament in England to facilitate the restoration. He sat in the Scottish parliament as member for Argyllshire from 1669 to 1674. As principal creditor he obtained in October 1672, from George, 6th earl of Caithness, a conveyance of his dignities, lands and heritable jurisdictions; and after the latter’s death he was created on the 28th of June 1677 earl of Caithness and viscount of Breadalbane. In 1678 he married the widowed countess of Caithness, an economical step which saved him the alimentary provision of 12,000 merks a year he had covenanted to pay. In 1680 he invaded Caithness with a band of 700 men and defeated and dispossessed the earl’s heir male. The latter, however, was subsequently confirmed in his lands and titles, and Campbell on the 13th of August 1681 obtained a new patent with the precedency of the former one, creating him earl of Breadalbane and Holland, viscount of Tay and Paintland, Lord Glenorchy, Benederaloch, Ormelie and Weick in the peerage of Scotland, with special power to nominate his successor from among the sons of his first wife. In 1685 he was a member of the Scottish privy council. Though nominally a Presbyterian he had assisted the intolerant and despotic government of Lauderdale in 1678 with 1700 men. He is described as having “neither honour nor religion but where they are mixed with interest,” as of “fair complexion, of the gravity of the Spaniard, cunning as a Fox, wise as a Serpent and supple as an Eel.”1 He was reputed the best headpiece in Scotland.2 His influence, owing to his position and abilities, was greater than that of any man in Scotland after Argyll, and it was of high moment to King William to gain him and obtain his services in conciliating the Highlanders. Breadalbane at first carried on communications with Dundee and was implicated in the royalist intrigue called the “Montgomery plot,” but after the battle of Killiecrankie in July 1689 he made overtures to the government, subsequently took the oath of allegiance, and was entrusted with a large sum of money by the government to secure the submission of the clans. On the 30th of June 1691 he met the Jacobite chiefs and concluded with them secret articles by which they undertook to refrain from acts of hostility till October, gaining their consent by threats and promises rather than by the distribution of the money entrusted to him, the greater part of which, it was believed, he retained himself. When asked to give an account of the expenditure he replied: “The money is spent, the Highlands are quiet, and this is the only way of accounting between friends.”3

BREADALBANE, JOHN CAMPBELL, 1st Earl of (c. 1636-1717), son of Sir John Campbell of Glenorchy, Bart., and Lady Mary Graham, daughter of William, earl of Airth and Menteith, was born around 1636. He participated in the failed royalist uprising led by Glencairn in 1654 and was among those who urged Monk to call for a free parliament in England to support the restoration. He served as a member of the Scottish parliament for Argyllshire from 1669 to 1674. As the main creditor, he received in October 1672 a transfer of titles, lands, and inherited rights from George, 6th earl of Caithness; and after George's death, he was granted the title of earl of Caithness and viscount of Breadalbane on June 28, 1677. In 1678, he married the widowed countess of Caithness, a practical move that spared him from paying the 12,000 merks a year he had agreed to provide. In 1680, he invaded Caithness with a group of 700 men and defeated the earl's male heir. However, the heir was later reaffirmed in his lands and titles, and on August 13, 1681, Campbell received a new patent which maintained the precedence of the former one, making him earl of Breadalbane and Holland, viscount of Tay and Paintland, and Lord Glenorchy, Benederaloch, Ormelie, and Weick in the Scottish peerage, with special authority to choose his successor from his first wife's sons. In 1685, he was a member of the Scottish privy council. Although he was officially a Presbyterian, he had supported the oppressive government of Lauderdale in 1678 with 1,700 men. He was described as having "neither honour nor religion except where they align with self-interest," with "a fair complexion, the seriousness of a Spaniard, cunning like a fox, wise like a serpent, and as flexible as an eel."1 He was regarded as the most astute mind in Scotland.2 His influence, due to his status and talent, surpassed that of any man in Scotland after Argyll, and it was crucial for King William to win him over and secure his support in winning over the Highlanders. Initially, Breadalbane communicated with Dundee and became involved in the royalist conspiracy known as the "Montgomery plot," but after the battle of Killiecrankie in July 1689, he approached the government, took the oath of allegiance, and was given a significant amount of money by the government to ensure the clans' compliance. On June 30, 1691, he met with the Jacobite leaders and made secret agreements with them, whereby they agreed to refrain from any hostilities until October, gaining their agreement more through threats and promises than by distributing the funds given to him, most of which he was believed to have kept for himself. When asked to explain his spending, he replied: "The money is spent, the Highlands are quiet, and this is the only way to settle accounts between friends."3

On the 27th of August a proclamation was issued offering indemnity to all those who should submit and take the oath of allegiance before the 1st of January 1692, and threatening all those who should refuse with a military execution and the penalties of treason. All the chiefs took the oath except MacIan, the chief of the MacDonalds of Glencoe, who postponed his submission till the 31st of December, and was then prevented from taking the oath till the 6th of January 1692 through the absence of a magistrate at Fort William, whither he had repaired for the purpose. This irregularity gave Breadalbane an immediate opportunity of destroying the clan of thieves which had for generations lived by plundering his lands and those of his neighbours. Accordingly, together with Argyll and Sir John Dalrymple (afterwards Lord Stair), Breadalbane organized the atrocious crime known as the “Massacre of Glencoe,” when the unfortunate MacDonalds, deceived by assurances of friendship, and at the moment when they were lavishing their hospitality upon their murderers, were butchered in cold blood on the 13th of February 1692. Breadalbane’s astuteness, however, prevented the disclosure of any evidence against him in the inquiry afterwards instituted in 1695, beyond the deposition of a person who professed to have been sent on Breadalbane’s behalf to obtain a declaration of his innocence from MacIan’s sons, who had escaped. The discovery of his former negotiations with the Jacobite chiefs caused his imprisonment in Edinburgh Castle in September, but he was released when it was known that he had been acting with William’s knowledge.

On August 27th, a proclamation was issued offering immunity to anyone who submitted and swore allegiance before January 1, 1692, while threatening military execution and treason penalties to those who refused. All the chiefs took the oath except for MacIan, the leader of the MacDonalds of Glencoe, who delayed his submission until December 31 and was then unable to take the oath until January 6, 1692, due to the absence of a magistrate at Fort William, where he had gone to do so. This irregularity provided Breadalbane an immediate chance to eliminate the clan of thieves that had been plundering his lands and those of his neighbors for generations. Therefore, along with Argyll and Sir John Dalrymple (later Lord Stair), Breadalbane orchestrated the horrific event known as the "Massacre of Glencoe." On February 13, 1692, the unsuspecting MacDonalds, misled by false promises of friendship and while they were generously hosting their murderers, were slaughtered in cold blood. However, Breadalbane's cunning ensured that no evidence against him came to light during the inquiry held in 1695, save for the testimony of a person claiming to have been sent by Breadalbane to obtain a declaration of innocence from MacIan's surviving sons. The revelation of his previous dealings with the Jacobite leaders led to his imprisonment in Edinburgh Castle in September, but he was released when it became known that he had acted with William's knowledge.

Breadalbane did not vote for the Union in 1707, but was chosen a representative peer in the parliament of Great Britain of 1713-1715. His co-operation with the English government in securing the temporary submission of the Highlands was inspired by no real loyalty or allegiance, and he encouraged the attempted French descent in 1708, refusing, however, to commit himself to paper. On the occasion of the Jacobite rising in 1715 he excused himself on the 19th of September from obeying the summons to appear at Edinburgh on the ground of his age and infirmities; but nevertheless the next day visited Mar’s camp at Logierait and afterwards the camp at Perth, his real business being, according to the Master of Sinclair, “to trick others, not to be trickt,” and to obtain a share of the French subsidies. He had taken money for the whole 1200 men he had promised and only sent 300. His 300 men were withdrawn after the battle of Sheriffmuir, and his death, which took place on the 19th of March 1717, rendered unnecessary any inquiry into his conduct. He married (1) Mary, daughter of Henry Rich, 1st earl of Holland, 474 by whom he had two sons, Duncan, styled Lord Ormelie, who was passed over in the succession, and John, and earl of Breadalbane; (2) Mary, daughter of Archibald, marquis of Argyll, and widow of George, 6th earl of Caithness, by whom he had one son, Colin. By Mrs Mildred Littler, who has sometimes but probably in error been named as his third wife, he had a daughter, Mary.

Breadalbane did not support the Union in 1707, but was elected as a representative peer in the Parliament of Great Britain from 1713 to 1715. His cooperation with the English government to gain temporary control over the Highlands was not driven by any genuine loyalty or allegiance, and he promoted the attempted French invasion in 1708, although he refused to put anything in writing. When the Jacobite rising occurred in 1715, he excused himself on September 19th from responding to the call to appear in Edinburgh due to his age and health issues; however, the next day he visited Mar’s camp at Logierait and later the camp at Perth, with his true aim, according to the Master of Sinclair, being “to trick others, not to be tricked,” and to secure a portion of the French subsidies. He had received funds for all 1200 men he had promised but only sent 300. His 300 men were withdrawn after the battle of Sheriffmuir, and his death on March 19, 1717, made any investigation into his actions unnecessary. He married (1) Mary, daughter of Henry Rich, 1st Earl of Holland, with whom he had two sons, Duncan, known as Lord Ormelie, who was passed over in the line of succession, and John, who became the Earl of Breadalbane; (2) Mary, daughter of Archibald, Marquis of Argyll, and widow of George, 6th Earl of Caithness, with whom he had one son, Colin. With Mrs. Mildred Littler, who has sometimes but likely incorrectly been referred to as his third wife, he had a daughter named Mary.

John Campbell, 2nd earl of Breadalbane (1662-1752), an eccentric nobleman, who was known as “Old Rag,” was succeeded by his only son, John (c. 1696-1782). This earl was a diplomatist, being British ambassador to Denmark and to Russia, and a politician, being for a long time a member of the House of Commons and a supporter of Sir Robert Walpole, in addition to holding several official positions. All his sons having predeceased their father, the title passed on his death, on the 26th of January 1782, to a cousin, John (1762-1834), who became 4th earl and was created a British peer as marquess of Breadalbane in 1831. His son John, the 2nd marquess (1796-1862), a prominent leader of the Free Church during the ecclesiastical disputes in Scotland, died without sons in November 1862. The marquessate now became extinct, but the Scottish earldom passed to a cousin John Alexander (1824-1871), whose son and successor, Gavin (b. 1851), was created marquess of Breadalbane in 1885.

John Campbell, the 2nd earl of Breadalbane (1662-1752), an eccentric nobleman known as “Old Rag,” was succeeded by his only son, John (c. 1696-1782). This earl was a diplomat, serving as the British ambassador to Denmark and Russia, as well as a politician, being a long-time member of the House of Commons and a supporter of Sir Robert Walpole, while also holding several official positions. Since all his sons predeceased him, the title passed to a cousin, John (1762-1834), upon his death on January 26, 1782. John became the 4th earl and was granted the title of British peer as marquess of Breadalbane in 1831. His son John, the 2nd marquess (1796-1862), a prominent leader of the Free Church during the ecclesiastical disputes in Scotland, died without sons in November 1862. The marquessate then became extinct, but the Scottish earldom passed to a cousin, John Alexander (1824-1871), whose son and successor, Gavin (b. 1851), was made marquess of Breadalbane in 1885.


1 Memoirs of John Macky (Roxburghe Club, 1895), 121.

1 Memoirs of John Macky (Roxburghe Club, 1895), 121.

2 Corr. of Col. N. Hooke (Roxburghe, Club, 1870), i. 49.

2 Corr. of Col. N. Hooke (Roxburghe, Club, 1870), i. 49.

3 Note by Sir W. Scott in Sinclair’s Mem. of Insurrection in Scotland (Abbotsford Club, 1858), 185.

3 Note by Sir W. Scott in Sinclair’s Mem. of Insurrection in Scotland (Abbotsford Club, 1858), 185.


BREADALBANE, a large district of Perthshire, Scotland, bordered N. by Atholl, E. by Strathtay, S. by Strathearn and W. by the districts of Argyll and Lorne, and occupying some 1020 sq. m. Most of the surface is mountainous, Ben Lawers (3984 ft.), Ben More (3843), and Ben Lui (3708), being the principal hills. Loch Tay is the chief lake, and among the rivers are the Orchy, Dochart, Lochay, Lyon, Almond and the Tay (during the early part of its course). Population mostly centres in Aberfeldy, Fortingal, Kenmore and Killin. The soil is not cultivable excepting in some of the glens and straths. Game is plentiful, the lakes and rivers afford good sport, and the deer forests and shootings are valuable. The district has given the titles of earl and marquess to the Campbells of Glenorchy.

BREADALBANE is a large area in Perthshire, Scotland, bordered to the north by Atholl, to the east by Strathtay, to the south by Strathearn, and to the west by the districts of Argyll and Lorne, covering about 1020 square miles. Most of the land is mountainous, with Ben Lawers (3984 ft.), Ben More (3843 ft.), and Ben Lui (3708 ft.) being the main hills. Loch Tay is the primary lake, and the rivers include the Orchy, Dochart, Lochay, Lyon, Almond, and the Tay (in the early part of its course). The population is mainly concentrated in Aberfeldy, Fortingal, Kenmore, and Killin. The soil is generally not suitable for farming, except in some of the glens and straths. There’s an abundance of game, the lakes and rivers provide great fishing, and the deer forests and shooting grounds are valuable. The district has granted the titles of earl and marquess to the Campbells of Glenorchy.


BREAD-FRUIT. This most important food staple of the tropical islands in the Pacific Ocean is the fruit of Artocarpus incisa (nat. ord. Moraceae). The tree attains a moderate height, has very large, acutely lobed, glossy leaves, the male flowers in spikes, and the female flowers in a dense head, which by consolidation of their fleshy carpels and receptacles form the fruit. The fruit is globular in shape, about the size of a melon, with a tuberculated or (in some varieties) nearly smooth surface. Many varieties of the tree are cultivated, the fruits of some ripening numerous seeds, which are eaten as chestnuts; but in the best kinds the seeds are aborted, and it is only these that are highly prized as vegetables. The tree is a native of the South Sea Islands, where its fruit occupies the important position that is held by cereals in temperate latitudes. The fruit, which on distinct varieties ripens at different periods, affording a nearly constant supply throughout the year, is gathered for use just before it ripens, when it is found to be gorged with starchy matter, to which its esculent value is due. It may be cooked and prepared for use in a great variety of ways, the common practice in the South Sea Islands being to bake it entire in hot embers, and scoop out the interior, which when properly cooked should have a soft smooth consistence, fibrous only towards the heart, with a taste which has been compared to that of boiled potatoes and sweet milk. Of this fruit A.R. Wallace, in his Malay Archipelago, says: “With meat and gravy it is a vegetable superior to anything I know either in temperate or tropical countries. With sugar, milk, butter or treacle it is a delicious pudding, having a very slight and delicate but characteristic flavour, which, like that of good bread and potatoes, one never gets tired of.” In the Pacific Islands the fruit is preserved for use by storing in pits, where the fruits ferment and resolve themselves into a mass similar in consistency to new cheese, in which state they emit an offensive odour; but after baking under hot stones they yield a pleasant and nutritious food. Another and more common method of preserving the fruit for use consists in cutting it into thin slices, which are dried in the sun. From such dried slices a flour is prepared which is useful for the preparation of puddings, bread and biscuits, or the slices are baked and eaten without grinding. The tree yields other products of economic value, such as native cloth from the fibrous inner bark of young trees; the wood is used for canoes and articles of furniture; and a kind of glue and caulking material are obtained from the viscid milky juice which exudes from incisions made in the stem.

BREAD-FRUIT. This crucial food staple of the tropical islands in the Pacific Ocean comes from Artocarpus incisa (family Moraceae). The tree grows to a moderate height, featuring large, sharply lobed, shiny leaves, male flowers that grow in spikes, and female flowers that cluster together to form the fruit through the merging of their fleshy parts. The fruit is round, about the size of a melon, with a bumpy or (in some varieties) nearly smooth surface. Many varieties of this tree are cultivated; some produce fruit with numerous seeds that are eaten like chestnuts, but the most sought-after kinds have no seeds, making them highly valued as vegetables. The tree is native to the South Sea Islands, where its fruit is as essential as grains are in temperate regions. The fruit of different varieties ripens at various times, providing a nearly continuous supply throughout the year. It is harvested just before ripening when it is packed with starchy matter, which gives it its edible value. It can be cooked in many ways, but in the South Sea Islands, it’s commonly baked whole in hot coals, and the inside is scooped out. When cooked correctly, it should have a soft, smooth texture, slightly fibrous towards the center, with a flavor compared to boiled potatoes and sweet milk. A.R. Wallace, in his Malay Archipelago, states: “With meat and gravy, it’s a vegetable better than anything I know in either temperate or tropical countries. With sugar, milk, butter, or syrup, it makes a delicious pudding with a subtle but distinctive flavor that, like good bread and potatoes, never gets tiresome.” In the Pacific Islands, the fruit is preserved by storing it in pits, where it ferments and becomes a mass similar in texture to fresh cheese, emitting a strong odor. However, after baking under hot stones, it turns into a pleasant and nutritious food. Another common method of preservation is slicing the fruit thinly and drying it in the sun. From these dried slices, a flour can be made that is useful for preparing puddings, bread, and biscuits, or the slices can be baked and eaten without grinding. The tree also provides other economically valuable products, such as native cloth made from the fibrous inner bark of young trees; its wood is used for making canoes and furniture; and a type of glue and caulking material is obtained from the sticky milky juice that oozes from cuts made in the trunk.

Artocarpus incisa, the Bread-fruit tree.

Fig. 1. Branch reduced about a 6th natural size, with cuneate-ovate pinnatifid leaves, male flowers in a club-shaped deciduous catkin, and female flowers in rounded clusters.

Fig. 1. Branch reduced to about one-sixth its natural size, with wedge-shaped, oval, deeply cut leaves, male flowers in a club-shaped deciduous catkin, and female flowers in rounded clusters.

Fig. 2. Transverse section of the male spike with numerous flowers.

Fig. 2. Cross-section of the male spike with many flowers.

Fig. 3. Male flowers.

Fig. 3. Male Flowers.

Fig. 4. Single male flower separated, with a perianth in 2 segments and a single stamen.

Fig. 4. Single male flower separated, with a perianth in 2 segments and a single stamen.

Fig. 5. Female flowers.

Fig. 5. Feminine flowers.

Fig. 6. Single female flower separated, with ovary, style and bifid stigma.

Fig. 6. Single female flower separated, with ovary, style, and split stigma.

Fig. 7. Ovary.

Fig. 7. Ovary.

Fig. 8. Ovary laid open to show the ovule.

Fig. 8. Ovary opened up to show the ovule.

Fig. 9. A variety of the ovary with 2 loculaments.

Fig. 9. A type of ovary with 2 chambers.

Fig. 10. Transverse section of a bilocular ovary.

Fig. 10. Cross-section of a two-chambered ovary.

The bread-fruit is found throughout the tropical regions of both hemispheres, and its first introduction into the West Indies is connected with the famous mutiny of the “Bounty,” and the remarkable history of a small company of the mutineers at Pitcairn Island. Attention was directed to the fruit in 1688 by Captain Dampier, and later by Captain Cook, who recommended its transplantation to the West Indian colonies. In 1787 the “Bounty” was fitted out under command of Lieutenant William Bligh (q.v.) to proceed to Tahiti to carry plants thence to the West Indian Islands; and it was after the cargo had been secured and the vessel was on her way that the mutiny broke out, and Lieutenant Bligh and some of his crew were turned adrift in a small boat in the open sea. The mutineers returned with the vessel to Tahiti, whence a number of them, with a few native men and women, sailed to the desolate and lone islet of Pitcairn. Lieutenant Bligh ultimately reached England, and was again commissioned to undertake the work of transplanting the plants, which in the year 1792-1793 he successfully accomplished.

The breadfruit is found throughout the tropical regions of both hemispheres, and its introduction to the West Indies is linked to the famous mutiny of the “Bounty” and the remarkable story of a small group of mutineers at Pitcairn Island. Captain Dampier drew attention to the fruit in 1688, and later Captain Cook recommended moving it to the West Indian colonies. In 1787, the “Bounty” was outfitted under Lieutenant William Bligh (q.v.) to travel to Tahiti and bring plants back to the West Indian Islands; it was after loading the cargo and setting sail that the mutiny occurred, leading to Lieutenant Bligh and some of his crew being cast adrift in a small boat on the open sea. The mutineers returned to Tahiti, and a number of them, along with a few native men and women, sailed to the remote and isolated Pitcairn Island. Ultimately, Lieutenant Bligh made it back to England and was given another commission to transplant the plants, a task he successfully completed in 1792-1793.

A somewhat similar but inferior fruit is produced by an allied species, the Jack or Jak, Artocarpus integrifolia, growing in India, Ceylon and the Eastern Archipelago. The large fruit 475 is from 12 to 18 in. long by 6 to 8 in. in diameter, and is much eaten by the natives in India. This tree is chiefly valuable on account of its timber, which has a grain very similar to mahogany, and although at first light-coloured it gradually assumes much of the appearance of that wood.

A similar but lesser fruit comes from a related species, the Jack or Jak, Artocarpus integrifolia, found in India, Sri Lanka, and the Eastern Archipelago. The large fruit 475 measures between 12 to 18 inches long and 6 to 8 inches in diameter, and it is a popular food for the locals in India. This tree is primarily valued for its timber, which has a grain that closely resembles mahogany, and while it starts off light-colored, it gradually takes on much of the appearance of that wood.


BREAKING BULK, a nautical term for the taking out of a portion of the cargo of a ship, or the beginning to unload; and used in a legal sense for taking anything out of a package or parcel, or in any way destroying its entirety. It was thus important in connexion with the subject of bailment, involving as it did the curious distinction that where a bailee received possession of goods in a box or package, and then sold them as a whole, he was guilty only of a breach of trust, but if he “broke bulk” or caused a separation of the goods, and sold a part or all, he was guilty of felony. This distinction was abolished by the Larceny Act 1861, which enacted that whoever, being a bailee of any chattel, money or valuable security, should fraudulently take or convert the same to his own use, or the use of any person other than the owner, although he should not break bulk or otherwise determine the bailment, should be guilty of larceny (s. 3).

BREAKING BULK is a nautical term that refers to taking out part of a ship's cargo or starting to unload it. It’s also used legally to describe removing anything from a package or parcel, effectively destroying its entirety. This was significant in relation to bailment, highlighting an interesting distinction: if a bailee received goods in a box or package and sold them whole, it was just a breach of trust. However, if the bailee "broke bulk" or separated the goods and sold some or all of them, that was considered felony. This distinction was eliminated by the Larceny Act of 1861, which stated that anyone who, while holding someone's chattel, money, or valuable security, fraudulently takes or converts it for their own use or for someone else's, even without breaking bulk or otherwise ending the bailment, would be guilty of larceny (s. 3).


BREAKWATER. When a harbour (q.v.) is proposed to be established on an exposed coast, whether for naval or commercial purposes, to provide a protected approach to a port or river, or to serve as a refuge for vessels from storms, the necessary shelter, so far as it is not naturally furnished by a bay or projecting headlands, has to be secured by the construction of one or more “breakwaters.” These breakwaters, having to prevent the waves that beat upon the coast from reaching the site which they are designed to protect, must be made sufficiently strong to withstand the shocks of the waves during the worst storms to which they are exposed. It is therefore essential, before constructing a breakwater, to investigate most carefully the force, periods and duration of the winds from the quarters to which the work will be exposed, the distance of any sheltering land from the site in the most stormy direction, the slope of the beach and the depth of the sea in the neighbourhood of the shore, and the protection, if any, afforded by outlying shoals or sandbanks. In a tidal sea, the height required for a breakwater is affected by the amount of tidal range; and the extent of breakwater exposed to breaking waves depends upon the difference in level between low and high water. The existence, also, of any drift of sand or shingle along the shore must be ascertained, and its extent; for the projection of a solid breakwater out from the shore is certain to affect this littoral drift, which, if large in amount, may necessitate important modifications in the design for the harbour.

BREAKWATER. When planning to establish a harbor (q.v.) on an exposed coastline, whether for naval or commercial use, to create a safe approach to a port or river, or to provide shelter for boats from storms, the necessary protection must be secured through the construction of one or more "breakwaters," if there isn’t natural shelter from a bay or headlands. These breakwaters need to be strong enough to withstand the force of waves during severe storms so that they can protect the area they’re built for. Therefore, it's crucial to carefully analyze the strength, duration, and direction of the winds that will impact the breakwater, the distance of any land that could provide shelter from the most stormy direction, the slope of the beach, and the sea depth near the shore, as well as any protection offered by nearby shoals or sandbanks. In a tidal area, the height of the breakwater is influenced by the tidal range, and the part of the breakwater exposed to breaking waves depends on the difference in height between low and high tides. Additionally, it's important to determine if there is any movement of sand or pebbles along the shore and its extent, because a solid breakwater extending from the shore will likely impact this drift, which, if significant, may require major changes to the harbor design.

Observations of the force and prevalence of the winds from the different quarters at the various periods of the year, and the instruments by which they are recorded, belong to the science of meteorology; but such records are very Winds. valuable to the maritime engineer in indicating from which directions, open to the sea, the worst storms, and, consequently, the greatest waves, may be expected, and against which the most efficient shelter has to be provided. Moreover, it is necessary, for constructing or repairing a breakwater, to know the period of the year when the calmest weather may be safely anticipated, and also the stormy season during which no work should be attempted, and in preparation for which unfinished works have to be guarded by protective measures. In the parts of the world subject to periodical winds, such as the monsoons, the direction and force of the winds vary with remarkable regularity according to the seasons; and even such uncertain occurrences as hurricanes and cyclones generally visit the regions in their track at definite periods of the year, according to the locality. Even in western Europe, where the winds are extremely variable, violent gales are much more liable to beat upon the western and northern coasts in the winter months than at any other period of the year; whilst the calmest weather may be expected between May and August.

Observing the strength and frequency of winds from different directions at various times of the year, along with the tools used to record them, falls under the field of meteorology. These records are incredibly valuable for maritime engineers, as they indicate the directions from the sea where the worst storms and, consequently, the biggest waves are likely to occur. This information helps in providing the most effective shelter. Additionally, it's important to know when the calmest weather can be expected to safely construct or repair a breakwater, and during which stormy season no work should be attempted, requiring protection for unfinished projects. In regions affected by seasonal winds, like monsoons, the direction and strength of the winds change with remarkable consistency throughout the seasons. Even unpredictable events like hurricanes and cyclones tend to strike certain areas at specific times of the year. In western Europe, where wind patterns are very variable, strong gales are more likely to hit the western and northern coasts during the winter months than at any other time, while the calmest weather usually occurs between May and August.

The size of waves depends upon the force of the wind, and the distance along which it blows continuously, in approximately the same direction, over a large expanse of ocean. The greatest waves are, accordingly, encountered where the maximum distance Waves. in a certain direction from the nearest land, or, as it is termed, the “fetch,” coincides with the line travelled by the strongest gales. The dimensions, indeed, of waves in the worst storms depend primarily on the extent of the sea in which they are raised; though in certain seas they are occasionally greatly increased by the exceptional velocities attained by hurricanes and typhoons, which, however, are fortunately restricted to fairly well defined and limited regions. Waves have been found to attain a maximum height of about 10 ft. in the Lake of Geneva, 17 ft. in the Mediterranean Sea, 23 ft. in the Bay of Biscay, and 40 ft. in the Atlantic Ocean; whilst waves of 50 to 60 ft. in height have been observed in the Pacific Ocean off the Cape of Good Hope, where the expanse of sea reaches a maximum, and the exposure to gales is complete. The length of large waves bears no definite relation to their height, and is apparently due, in the long waves often observed in exposed situations, to the combination of several shorter waves in their onward course, which is naturally dependent on the extent of the exposure. Thus waves about 560 ft. in length have been met with during severe gales in the Atlantic Ocean; whilst waves from 600 to 1000 ft. long are regarded as of common occurrence in the Pacific Ocean during storms.

The size of waves depends on the strength of the wind and how far it blows continuously in roughly the same direction over a large area of ocean. The biggest waves are usually found where the farthest distance from the nearest land, known as the “fetch,” aligns with the path taken by the strongest winds. In fact, the size of waves during severe storms mainly relies on the size of the sea in which they form; however, in certain areas, they can be significantly boosted by the high speeds reached by hurricanes and typhoons, which are fortunately confined to specific regions. Waves have been recorded at a maximum height of about 10 ft. in Lake Geneva, 17 ft. in the Mediterranean Sea, 23 ft. in the Bay of Biscay, and 40 ft. in the Atlantic Ocean. Additionally, waves of 50 to 60 ft. have been observed in the Pacific Ocean off the Cape of Good Hope, where the sea area is extensive and fully exposed to strong winds. The length of large waves does not have a consistent relationship with their height; rather, it seems that in long waves often seen in exposed areas, the combination of several shorter waves contributes to their forward motion, which is naturally influenced by the level of exposure. For example, waves about 560 ft. long have been encountered during severe storms in the Atlantic Ocean, while waves ranging from 600 to 1,000 ft. long are considered common in the Pacific Ocean during storms.

The rate of transmission of the undulation also varies with the exposure; for the ordinary velocity of the apparent travel of waves in storms has been found to amount to about 22 m. an hour in the Atlantic Ocean, and to attain about 27 m. an hour off Cape Horn. The large waves, however, observed in mid-ocean do not reach the coast, because their progress is checked, and their height and length reduced, by encountering the shelving sea-bottom, which diminishes the depth of water on approaching the shore; and the actual waves which have to be arrested by breakwaters depend on the exposure of the site, the existence of continuous deep water close up to the shore, and the depth in which the breakwater is situated. On the other hand, the height, and, consequently, the destructive force of waves, is increased on running up a funnel-shaped bay, by the increasing concentration of the waves in the narrowing width, just as the tidal range of a moderate tidal current is much augmented by its passage up the Bay of Fundy, or up the Bristol Channel into the Severn estuary, or by filling the shallow enclosed bay of St Malo. This effect is intensified when the bay faces the direction of the strongest winds. Thus at Wick a mass of masonry weighing 1350 tons, placed at the head of the breakwater projecting half-way across the bay and facing the entrance, was moved by the waves during a violent storm; and a portion of Peterhead breakwater, weighing 3300 tons, was shifted 2 in. in 1898, indicating a wave-stroke of 2 tons per sq. ft. Southwesterly gales, blowing up the Gulf of Genoa, cause large waves to roll into the bay, reaching a height of about 21 ft. in the worst storms.

The speed at which waves travel varies with exposure; for example, the average speed of wave movement during storms has been found to be about 22 miles per hour in the Atlantic Ocean, reaching around 27 miles per hour off Cape Horn. However, the large waves seen in the open ocean don’t make it to the coast because their movement slows down, and their height and length decrease when they hit the shallow sea floor, which reduces the water depth as they near shore. The actual waves that break against coastal barriers depend on the site's exposure, the presence of deep water close to shore, and the depth of the breakwater. On the flip side, the height and thus the destructive power of waves increase as they move into a funnel-shaped bay, due to the concentration of waves in the narrowing space, similar to how the tidal range of a moderate tidal current increases as it flows up the Bay of Fundy, or up the Bristol Channel into the Severn estuary, or fills the shallow enclosed bay of St. Malo. This effect is amplified when the bay faces the direction of the strongest winds. For instance, at Wick, a masonry block weighing 1350 tons, located at the end of the breakwater extending halfway across the bay and facing the entrance, was moved by the waves during a fierce storm; similarly, a section of the Peterhead breakwater, weighing 3300 tons, was shifted 2 inches in 1898, showing a wave force of 2 tons per square foot. Southwesterly gales blowing up the Gulf of Genoa generate large waves that can reach about 21 feet in height during the worst storms.

Where outlying sandbanks stretch in front of a coast, as for instance the Stroombank in front of Ostend and the adjacent shore, and the sandbanks opposite Yarmouth sheltering Yarmouth Roads, large waves cannot approach the land, for they break on the sandbanks outside. Waves, indeed, always break when, on running up a shoaling beach, they reach a depth approximately equal to their height; and the largest waves which can reach a shore protected by intervening sandbanks, are those which are low enough to pass over the banks without breaking.

Where sandy banks extend offshore, like the Stroombank near Ostend and the nearby coast, or the sandbanks by Yarmouth protecting Yarmouth Roads, big waves can’t hit the shore because they crash against the banks offshore. Waves always break when they hit a shallow beach and reach a depth roughly equal to their height; the largest waves that can reach a shore protected by sandbanks are those that are low enough to roll over the banks without breaking.

The force of the wind, as transmitted by degrees to the sea, is manifested as a series of progressing undulations without any material displacement of the body of water, each undulation transmitting its accumulated force to the next in the direction the wind is blowing, till at last, on encountering an obstacle to its onward course, each wave, no longer finding any water to which to communicate its energy, deals a blow against the obstacle proportionate to its size and rate of transmission; or on reaching shoal water near the shore, the undulation is finally transformed into a breaking wave rushing up the sloping beach. 476 till, on its energy being spent, it recoils back to the sea down the beach. A breaking wave concentrates its transmitted force on a portion of the water forming the undulation, which, consequently, strikes a more powerful blow over a limited area against any structure than the more distributed shock of a simple undulation beating against a vertical wall. Moreover, the recoil of broken waves down a sloping beach or rubble mound produces a greater scour than the simple reflection of an undulation from a vertical wall, especially where the depth is sufficient to provide a cushion of water below the undulation, protecting the toe of the wall from the wash of recoil.

The strength of the wind, as it transfers energy to the sea, shows up as a series of waves moving without any actual shift in the water itself. Each wave passes its collected energy to the next in the direction the wind is blowing. Eventually, when it hits an obstacle, each wave, no longer able to transfer its energy to water, hits the obstacle with force that matches its size and speed. When these waves reach shallow water near the shore, they become breaking waves rushing up the beach. 476 After losing their energy, they pull back into the sea along the beach. A breaking wave focuses its energy on a small part of the water making up the wave, resulting in a stronger impact on a specific area compared to the wider, less intense force of a regular wave hitting a vertical wall. Additionally, the retreat of broken waves down a sloping beach or rocky mound causes more erosion than the simple bounce back of a wave from a vertical wall, especially where the water is deep enough to cushion the water below the wave, protecting the base of the wall from the wash back.

Types of Breakwaters.—There are three distinct types of breakwaters:—(1) A simple rubble or concrete-block mound; (2) a mound for the bottom portion, surmounted on the top by a solid superstructure of masonry or concrete; and (3) an upright-wall breakwater, built up solid from the sea-bottom to the top. The second type forms a sort of combination of the first and third types; and each type presents several varieties. In a few harbours, two different types have been adopted for different situations at the same place; but generally the choice of type is determined by the materials available at the site for the construction of the breakwater, the nature of the sea-bottom and the depth into which the breakwater has to be carried.

Types of Breakwaters.—There are three main types of breakwaters: (1) a simple mound made of rubble or concrete blocks; (2) a mound for the lower part, topped with a solid structure of masonry or concrete; and (3) an upright-wall breakwater, built solidly from the sea bottom to the top. The second type is a combination of the first and third types, and each type has several variations. In some harbors, two different types are used for various situations in the same area; however, the choice of type is usually based on the materials available at the construction site, the nature of the sea bottom, and the depth to which the breakwater needs to be built.

1. Rubble and Concrete-Block Mound Breakwaters.—A rubble mound consists merely of a mass of rubble stone, just as it is obtained from a neighbouring quarry, tipped into the sea along a predetermined line, till the mound emerges out of water. Rubble mound. The rubble stone is deposited, either from barges, as adopted for the construction of the detached breakwater sheltering Plymouth Bay, or from wagons, having hinged opening flaps at the bottom for dropping their load, run out from the shore along staging erected in the proposed line, according to the method employed for the outer breakwater enclosing Portland Harbour, and the north-east breakwater at Colombo Harbour. The mound thus deposited is gradually consolidated under the action of the sea; and a tolerably stable form is by degrees attained by continued deposits of stone. This system of construction is very wasteful of materials, and can only be resorted to where extensive quarries close at hand are able to furnish readily and cheaply very large quantities of stone, especially where, as at Portland and Table Bay, convict labour has been advantageously utilized in quarrying. When the site is very exposed, the large waves in storms, dashing over a rubble-mound breakwater, carry the stones on the top, if unprotected, over on to the harbour slope, and in recoiling down the outer slope, draw down the stones on the face, so that the top and sea slope of the mound need replenishing with a fresh deposit of stones after severe storms.

1. Rubble and Concrete-Block Mound Breakwaters.—A rubble mound is simply a large pile of rubble stone, taken directly from a nearby quarry and dumped into the sea along a planned line until the mound rises above the water. Debris pile. The rubble stone is placed there either from barges, as done for the detached breakwater protecting Plymouth Bay, or from wagons with hinged flaps at the bottom that drop their load, which are run out from the shore on staging set up in the intended line, similar to the method used for the outer breakwater surrounding Portland Harbour, and the northeast breakwater at Colombo Harbour. The mound settles gradually due to the action of the sea, and through continued deposition of stone, it slowly takes on a relatively stable shape. This construction method wastes a lot of materials and is only viable where there are large nearby quarries that can supply large amounts of stone quickly and cheaply, especially where, like in Portland and Table Bay, convict labor has been effectively used for quarrying. When the site is very exposed, large storm waves crashing over a rubble-mound breakwater can wash away the stones on top if they’re unprotected, and as the water recedes down the outer slope, it can pull stones off the face, which means the top and sea slope of the mound will need to be refilled with fresh stones after severe storms.

Fig. 1.—Table Bay Breakwater

Under the action of the breaking and recoiling waves, the mound assumes a very flat slope on the sea side, from a few feet above high-water down to several feet below low-wafer level (fig. 1). The flatness of the sea slope depends on the exposure of the site, and the limited size of the stones covering the outer portion of the mound; and its extent increases with the range of tide, as a large tidal rise exposes a greater length of slope to the action of the waves. This flattening of the sea slope greatly increases the amount of stone required for a rubble-mound breakwater, in proportion to the exposure and the range of tide; and the amount is also affected, but in a proportionately minor degree, by the depth in which the breakwater is situated. In order to avoid the injuries to which an ordinary rubble mound is subjected by waves, certain methods have been devised for protecting the top and sea slope of the mound. For instance, the upper portion of Plymouth breakwater has been covered over by granite paving set in cement, to diminish the displacement of the stones by the waves. Frequently, on the continent of Europe, rubble mounds have been formed of materials so sorted that the smallest stones are placed in the centre of the lower part of the mound, and covered over along the slopes and top by layers of larger stones, increasing in size towards the outer part of the mound, so that the largest stones obtainable are deposited on the outside, and especially on the top and sea slope of the mound. This is, no doubt, theoretically the correct method of construction of rubble mounds exposed to the sea; but it involves a considerable amount of trouble and expense.

With the impact of breaking and receding waves, the mound takes on a very flat slope on the seaside, ranging from a few feet above high-water to several feet below low-water level (fig. 1). The flatness of the sea slope depends on the location's exposure and the small size of the stones covering the outer part of the mound; its extent increases with the tidal range, as a large tidal rise exposes more slope to wave action. This flattening of the sea slope significantly increases the amount of stone needed for a rubble-mound breakwater, depending on the exposure and tidal range; the depth of the breakwater also plays a role, but to a lesser extent. To protect ordinary rubble mounds from wave damage, various methods have been developed for safeguarding the top and sea slope of the mound. For example, the upper section of Plymouth breakwater has been covered with granite paving set in cement to reduce stone displacement from waves. Often, in continental Europe, rubble mounds have been constructed using sorted materials, placing the smallest stones at the center of the lower part of the mound, with layers of larger stones covering the slopes and top, increasing in size towards the outer part of the mound. This means the largest available stones are placed on the outside, particularly on the top and sea slope of the mound. While this is theoretically the best construction method for rubble mounds exposed to the sea, it requires considerable effort and expense.

Fig. 2.—Alexandria Breakwater.

Practically the chief point of importance is to cover the outer slope and the top of the mound with the largest stones that can be procured, and where large stones are not readily obtainable concrete blocks furnish a very convenient substitute. Concrete blocks with rubble mound. These blocks are generally deposited as the outer covering on the top and sea slope of a rubble mound, as for example at the mound breakwaters in deep water sheltering Algiers harbour, and at the French parts of Cette and Bona on the Mediterranean; whilst they furnish the protection of the top and upper part of the sea slope of the rubble-mound extension of Marseilles breakwater down to 20 ft. below sea-level. At Alexandria, concrete blocks compose the outer half of the mound, sheltering the inner half consisting of small rubble (fig. 2); at Biarritz the mound breakwater is formed mainly of concrete blocks, with rubble stone filling the interstices and on the top; whereas at the outer end of the western breakwater at Port Said, protecting the entrance to the Suez Canal, a bottom layer of rubble is surmounted by concrete blocks. These blocks are generally deposited at random; but at Cette (fig. 3), and at the breakwater in deep water at Civita Vecchia, the concrete blocks covering the rubble have been laid in stepped, horizontal courses. This arrangement necessitates more care and better appliances in construction; but, in compensation, the blocks so placed are less exposed to disturbance and injury by the waves.

The main point of importance is to cover the outer slope and the top of the mound with the largest stones available, and where large stones aren't easily found, concrete blocks provide a very useful alternative. Concrete blocks with rubble pile. These blocks are usually placed as the outer covering on the top and sea slope of a rubble mound, like those at the mound breakwaters in deep water protecting Algiers harbor, as well as at the French locations of Cette and Bona on the Mediterranean. They also protect the top and upper section of the sea slope of the rubble-mound extension of the Marseilles breakwater down to 20 feet below sea level. In Alexandria, concrete blocks make up the outer half of the mound, sheltering the inner half that consists of small rubble (fig. 2). In Biarritz, the mound breakwater is mainly made of concrete blocks, with rubble stone filling in the gaps and on top. Meanwhile, at the outer end of the western breakwater at Port Said, which protects the entrance to the Suez Canal, a bottom layer of rubble is topped with concrete blocks. These blocks are generally placed randomly, but at Cette (fig. 3) and at the breakwater in deep water at Civita Vecchia, the concrete blocks covering the rubble have been set in stepped, horizontal layers. This setup requires more care and better tools during construction; however, the blocks in this arrangement are less vulnerable to disturbance and damage from the waves.

Concrete blocks possess the great advantages for breakwaters that they can be made wherever sand and shingle can be procured, and of a size only limited by the appliances which are available for handling them. In fact, in places where stone of any kind is difficult to procure at a reasonable cost, as for instance at Port Said, concrete blocks are indispensable for the construction of breakwaters. Large concrete blocks, moreover, by enabling a comparatively steep slope to be formed with them on the sea side of a mound breakwater, reduce considerably the amount of materials required, especially at exposed sites, and also for breakwaters extended into deep water, such as those of Algiers and Marseilles.

Concrete blocks offer significant benefits for breakwaters since they can be produced wherever sand and gravel are available, and their size is only limited by the equipment used to handle them. In fact, in areas where acquiring stone is difficult and costly, like Port Said, concrete blocks are essential for building breakwaters. Additionally, large concrete blocks allow for a relatively steep slope to be created on the seaward side of a mound breakwater, significantly reducing the amount of materials needed, especially in exposed locations and for breakwaters that extend into deep water, such as those in Algiers and Marseilles.

Fig. 3.—Cette Breakwater.
Fig.4.—Port Said Western Breakwater.

Occasionally, in the absence of suitable rubble stone, a mound breakwater has been formed entirely with concrete blocks; and of this the main portion of the western breakwater at Port Said furnishes a notable example (fig. 4). Sometimes, in exposed situations, the mounds of the composite type Concrete block mound. of breakwaters have been constructed exclusively with concrete blocks, such, for instance, as in the curved breakwater protecting the outer harbour at Leghorn, and in the central breakwater in deep water sheltering the harbour of St Jean de Luz, and directly facing the Bay of Biscay. These large concrete blocks are deposited by cranes from staging, tipped into the sea from a sloping platform on barges, or floated out between pontoons, or slung out from floating derricks. This last method proved so expeditious for the upper blocks at Alexandria, that, in conjunction with the tipping of the lower blocks from the inclined planes on the decks of barges and the deposit of the rubble from hopper barges, provided also with side flaps for the higher portions, the detached breakwater, nearly 2 m. long, sheltering a very spacious harbour, was constructed in two years (1870-1872). Sometimes, when a mound breakwater has been raised out of water, advantage is taken of a calm period of the year and a low tide to form large blocks of concrete within timber framing on the top of the mound, so as to provide a very efficient protection.

Occasionally, when there isn’t enough suitable rubble stone, a mound breakwater has been built entirely with concrete blocks. A notable example of this is the main part of the western breakwater at Port Said (fig. 4). In some exposed areas, composite type mounds of breakwaters have been made exclusively with concrete blocks, like in the curved breakwater that protects the outer harbor at Leghorn and in the central breakwater that shelters the harbor of St Jean de Luz, directly facing the Bay of Biscay. These large concrete blocks are placed by cranes from staging, tipped into the sea from a sloping platform on barges, floated out between pontoons, or lifted out from floating derricks. This last method was so efficient for the upper blocks at Alexandria that, along with tipping the lower blocks from inclined planes on the decks of barges and depositing rubble from hopper barges equipped with side flaps for the upper portions, the detached breakwater, which is nearly 2 meters long and protects a very spacious harbor, was constructed in two years (1870-1872). Sometimes, when a mound breakwater has been raised out of the water, builders take advantage of a calm period of the year and low tide to create large concrete blocks within timber framing on top of the mound, providing very effective protection.

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The large masses composing mound breakwaters give them great stability against the attacks of the sea; and, moreover, the wide base of the mounds enables them to be deposited on a sandy or silty sea-bottom, without any fear of settlement or undermining. A mound breakwater, however, has the disadvantages of requiring a large amount of material, and of occupying a wide space on the bed of the sea, more especially where the mound consists of rubble stone and is in deep water, so that the system, though simple, is costly, and is unsuited for harbours where the available space to be sheltered is limited. Nevertheless, a mound breakwater can be rapidly constructed by the employment of a large number of barges; and by the adoption of large concrete blocks, the quantity of materials and the space occupied by the mound can be considerably reduced. This form of breakwater, with its long outer slope exposed to breaking waves, particularly where the tidal range is considerable, is, indeed, more subject to frequent small injuries than the other types, but they are readily repaired; and a mound is not generally liable to the serious breaches which occasionally are formed in solid superstructures and upright walls in exceptional storms.

The large masses making up mound breakwaters provide them with great stability against the forces of the sea. Additionally, the wide base of the mounds allows them to be placed on a sandy or silty sea bed without worrying about settling or undermining. However, a mound breakwater has some downsides: it requires a lot of material and takes up a large area on the sea floor, especially when made of rubble stone and situated in deep water. This means that, while the design is simple, it can be expensive and isn’t suitable for harbors where space is limited. Still, a mound breakwater can be built quickly using many barges, and by using large concrete blocks, the amount of material needed and the space it occupies can be significantly reduced. This type of breakwater, with its long outer slope facing breaking waves—especially in areas with significant tidal changes—is indeed more prone to frequent minor damage compared to other types. Fortunately, these damages are easy to repair, and a mound generally doesn’t suffer the serious breaches that can occur in solid structures and vertical walls during exceptional storms.

2. Breakwaters formed of a Mound surmounted by a Superstructure.—The second type of breakwater consists of a mound, composed of rubble or concrete blocks, or generally a combination of the two, carried up from the sea-bottom, on the top of which some form of solid superstructure is erected. This superstructure reduces considerably the amount of materials required (which, on account of the slopes of the mound, increases rapidly with the height) in proportion to the depth at which the superstructure is founded; and the solid capping on the mound serves also to protect the top of the mound from the action of the waves. In the case, however, of a mound breakwater, portions of the highest waves generally pass over the top of the mound, and also to some extent expend their force in passing through the interstices between the blocks; whereas a superstructure presents a solid face to the impact of the waves. A superstructure, accordingly, must be very strongly built in proportion to the exposure, and also to the size of the waves liable to reach it, which depends upon the height and flatness of the slope of the mound just in front of it on the sea side. Special care, moreover, has to be taken to prevent the superstructure from being undermined; for the waves in storms, dashing up against this nearly vertical, solid obstacle, tend in their recoil down the face to scour out the materials of the mound at the outer toe of the superstructure, and thereby undermine it, especially where the superstructure is founded on the mound near low-water level, and there is, therefore, no adequate cushion of water above the mound to diminish the effect of the recoil on the foundation.

2. Breakwaters made of a mound topped with a superstructure.—The second type of breakwater is made up of a mound constructed from rubble or concrete blocks, or usually a mix of both, built up from the sea bottom, on top of which a solid superstructure is placed. This superstructure significantly reduces the amount of materials needed (which, due to the slopes of the mound, increases quickly with height) in relation to the depth at which the superstructure is anchored; and the solid cap on the mound also helps protect the top from wave action. However, in the case of a mound breakwater, parts of the tallest waves typically pass over the top of the mound, and some of their force is spent moving through the gaps between the blocks; whereas a superstructure presents a solid surface for waves to hit. Consequently, a superstructure must be built very strongly according to its exposure and the size of waves likely to reach it, which is influenced by the height and gradual slope of the mound in front of it on the sea side. Additionally, special attention must be given to prevent the superstructure from being undermined; during storms, waves crashing against this nearly vertical, solid barrier tend to scour away the materials at the outer edge of the mound beneath the superstructure as they recoil down the face, leading to undermining, especially where the superstructure is positioned near the low-water mark, leaving no adequate cushion of water above the mound to lessen the recoil's impact on the foundation.

The mound constituting the lower portion of the composite type of breakwater has been formed in the same varied way as simple mound breakwaters, namely, of rubble, sorted rubble, rubble protected by concrete blocks, and wholly of concrete blocks. The only differences introduced in the mound in this case are, that it is not carried up so high, that the top portion covered by the superstructure needs no further protection, and that special protection has to be provided on the slope of the mound adjacent to the outer toe of the superstructure.

The mound making up the lower part of the composite type of breakwater has been constructed in the same diverse manner as simple mound breakwaters, using rubble, sorted rubble, rubble protected by concrete blocks, and entirely made of concrete blocks. The only differences in this mound are that it’s not built as high, the top part covered by the superstructure doesn’t need additional protection, and special protection is required on the slope of the mound next to the outer toe of the superstructure.

The forms of the superstructures exhibit considerable variations, ranging from a few concrete blocks laid in courses on the top of the mound, or a paving furnishing a quay protected by a narrow parapet wall on the sea side, up to a large, solid structure, only differing from an upright-wall Superstructures. breakwater in being founded upon a mound, instead of on the sea-bottom. Notwithstanding, however, this great variety in design, these breakwaters may be divided into two distinct classes, namely, breakwaters having their superstructures founded at or near low-water level, and breakwaters with superstructures founded some depth below low water. The object in the first case is to lay the foundations of the superstructure on the mound at the lowest level consistent with building a solid structure with blocks set in mortar, out of water, in the ordinary manner; and, in the second case, to stop the raising of the mound at such a depth under water as to secure it from displacement by the waves. In fact, the solidity and facility of construction of the superstructure were the primary considerations in the older form of breakwater; whereas the stability of the mound and the avoidance of the undermining of the superstructure have been regarded as the most important provisions in the more modern form.

The structures on top show a wide range of styles, from a few concrete blocks stacked on the mound to a paved area creating a dock protected by a narrow wall on the sea side, all the way to a large, solid structure that only differs from a vertical-wall breakwater in being built on a mound instead of the sea floor. Despite this wide variety in design, these breakwaters can be categorized into two main types: breakwaters with their structures built at or near low-water level, and those with structures built well below low water. In the first case, the aim is to establish the superstructure's foundation on the mound at the lowest possible level that still allows for a sturdy structure to be built with blocks set in mortar while out of water. In the second case, the goal is to prevent the buildup of the mound at a depth underwater that could lead to it being moved by the waves. Essentially, the strength and ease of building the superstructure were the main concerns in the older style of breakwater, while the stability of the mound and preventing erosion of the superstructure have become the top priorities in more contemporary designs.

Well-known examples of breakwaters formed of a rubble mound surmounted by a superstructure founded at or near low water or sea-level, are furnished by Cherbourg and Holyhead breakwaters, the inner breakwater at Portland, and the Superstructures at low-water level. breakwaters at Marseilles, Genoa, Civita Vecchia, Naples, Trieste and other Mediterranean ports. The very exposed breakwater at Alderney was commenced on this principle about the middle of the 19th century; and the outer breakwaters at Leghorn and St Jean de Luz have superstructures founded at low water on concrete-block mounds.

Well-known examples of breakwaters made of a rubble mound topped with a superstructure built at or near low water or sea level include the breakwaters at Cherbourg and Holyhead, the inner breakwater at Portland, and the breakwaters at Marseilles, Genoa, Civita Vecchia, Naples, Trieste, and other Mediterranean ports. The highly exposed breakwater at Alderney started using this principle around the mid-19th century, and the outer breakwaters at Leghorn and St Jean de Luz have superstructures built at low water on concrete-block mounds.

Fig. 5.—Marseilles Breakwater, central portion.

The long, detached breakwater sheltering the series of basins formed by wide projecting jetties along the sea coast at Marseilles (see Dock), is a typical instance of a breakwater where a quay has been formed on the top of a sorted rubble mound, sheltered on the sea side by a high wall, or narrow superstructure, founded at sea-level, and protected on the sea slope of the mound from undermining by large concrete blocks deposited at random (fig. 5). In this case the quay has been rendered accessible for vessels on the harbour side by a quay wall, formed of concrete blocks deposited one above the other, providing a vertical face to a depth of about 22¾ ft. below sea-level; and a similar arrangement has been adopted at Trieste, and in a less effective manner at Civita Vecchia and Naples. At Marseilles, however, when the breakwater reached great depths, the quay was abandoned on account of the increased exposure, and the extension made of a simple rubble mound, protected on the sea side, from the top down to 20 ft. below sea-level, by large concrete blocks deposited at random.

The long, detached breakwater that shelters the series of basins created by wide protruding jetties along the coastline at Marseilles (see Dock) is a prime example of a breakwater where a quay has been built on top of a sorted rubble mound, which is protected on the sea side by a high wall or narrow superstructure, anchored at sea level, and safeguarded from erosion on the slope of the mound with large concrete blocks placed haphazardly (fig. 5). In this instance, the quay has been made accessible for vessels on the harbor side by a quay wall made of stacked concrete blocks, creating a vertical face that extends about 22¾ ft. below sea level; a similar setup has been implemented in Trieste and, to a lesser extent, in Civita Vecchia and Naples. However, in Marseilles, once the breakwater reached significant depths, the quay was abandoned due to increased exposure, and the extension was created as a simple rubble mound, which is protected from the sea side, from the top down to 20 ft. below sea level, with large concrete blocks placed randomly.

The superstructures at Holyhead and Portland, being built on the old weak system of a sea wall and a harbour wall, with rubble filling between, are protected on the sea side by raising the rubble against them from low water up to high water of spring tides; whereas the superstructure of Cherbourg breakwater, being built solid and less exposed, is only protected on the sea side by large rubble and some concrete blocks, forming an apron raised slightly above low water. These three breakwaters are provided with a quay sheltered by a raised wall or promenade on the sea side; but as the mound on the harbour side is raised up to, or a little above low water, the quay is only accessible for vessels near high water. This, however, is of comparatively little importance, since these quays, though very useful for access to the end of the breakwater in fairly calm weather, are inaccessible in exposed situations with a rough sea; and quays for the accommodation of vessels are better provided well within the sheltered harbour.

The superstructures at Holyhead and Portland are being built on the old, weak system of a seawall and a harbor wall, with rubble filling in between. They are protected on the seaward side by raising the rubble from low tide up to high tide of spring tides. In contrast, the superstructure of the Cherbourg breakwater is built solidly and is less exposed; it’s only protected on the seaward side by large rubble and some concrete blocks, forming an apron that’s slightly raised above low tide. All three breakwaters have a quay sheltered by a raised wall or promenade on the seaward side. However, since the mound on the harbor side is raised to or just above low tide, the quay is only accessible for vessels at high tide. This isn’t a big issue, though, because while these quays are very useful for accessing the end of the breakwater in fairly calm weather, they are inaccessible in exposed conditions with rough seas. Quays meant for accommodating vessels are better located well inside the sheltered harbor.

Fig. 6.—San Vincenzo Breakwater, Naples.

The outer portions of the main breakwaters at Genoa and at Naples (fig. 6), extending into depths of about 75 ft. and 110 ft. respectively, have been provided with superstructures, similar in type, but more solid than the superstructure at Marseilles; and the sorted rubble mounds upon which the superstructures rest are protected on the sea slope by stepped courses of concrete blocks from a depth of 26 ft. below sea-level, covered over at the top by a masonry apron forming a prolongation of the superstructure. The outer extension of the main breakwater at Civita Vecchia furnishes an interesting example of a composite form of breakwater, in which the rubble mound has been protected, and greatly reduced in volume and extent in deep water, by stepped courses of concrete blocks carried up from near the bottom of the mound (fig. 7).

The outer parts of the main breakwaters at Genoa and Naples (fig. 6), reaching depths of about 75 ft. and 110 ft. respectively, have been equipped with superstructures that are similar in style but sturdier than the one at Marseilles. The sorted rubble mounds supporting these superstructures are protected on the sea slope by stepped layers of concrete blocks starting from a depth of 26 ft. below sea level, topped with a masonry apron that extends the superstructure. The outer extension of the main breakwater at Civita Vecchia provides an interesting example of a composite breakwater design, where the rubble mound has been safeguarded and significantly reduced in size and extent in deep water by stepped layers of concrete blocks rising up from near the base of the mound (fig. 7).

The breakwaters in front of Havre, constructed in 1896-1907, for sheltering the altered entrance to the port, were formed of a sorted rubble mound, protected on the sea slope by concrete blocks, and raised a little above low water of spring tides, upon which large blocks of masonry, built on land, were deposited with their upper surfaces about 18 in. above low water of neap tides. As soon as settlement of the mound under the action of the sea appeared to have ceased, these masonry blocks were connected together by filling the spaces between them with masonry; and a solid masonry superstructure was built during low tide on this foundation layer, as shown in fig. 8.

The breakwaters in front of Havre, built between 1896 and 1907 to protect the modified entrance to the port, were made from a mound of sorted rubble, which was reinforced on the seaward side with concrete blocks. They were raised slightly above the low water level of spring tides, and large masonry blocks, constructed on land, were placed on top so their upper surfaces were about 18 inches above the low water level of neap tides. Once it seemed that the mound had settled and was no longer shifting due to the sea, the masonry blocks were joined together by filling the gaps between them with more masonry. A solid masonry superstructure was then constructed during low tide on this foundational layer, as shown in fig. 8.

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Fig. 7.—Civita Vecchia Outer Breakwater.

The breakwaters constructed for forming harbours on the sea coast of the United States are almost all rubble-mound breakwaters. The two old detached breakwaters sheltering Delaware Harbour near the south-eastern extremity of Delaware Bay, were formed of simple rubble mounds raised about 13 ft. above low water; but in closing the gap between them towards the close of the 19th century, the rubble mound was stopped at low water, and a sort of superstructure, consisting of stepped courses of large rectangular blocks of stone on the sea and harbour sides, with tightly packed rubble between them and capped across the top for a width of 20 ft. with a course of large blocks, was raised to 14 ft. above low water, resembling, on a small scale, the upper part of the Civita Vecchia mound (fig. 7). A similar construction was adopted for the new breakwater formed in 1897-1901 for providing a harbour of refuge at the mouth of Delaware Bay; but in this instance the mound was made considerably wider at the top, and had to be protected along the toe of the superstructure on the sea side by large stones. The same form of superstructure, also, on a narrower base, was resorted to for a breakwater in deeper water at San Pedro in California with satisfactory results. When, however, a breakwater of the Delaware type was in progress for forming a harbour of refuge in Sandy Bay, Massachusetts, in front of Rockport to the north of Boston, the upper 13 ft. of the 600 ft. of completed superstructure were carried away during a severe storm in 1898 leaving only a portion about 5 ft. in height above low water, the average rise of tide there being 835 ft. The design was, accordingly, modified in 1902, by commencing the stepped courses of large stones at 12 ft. below mean low water on each slope, instead of at low water raising this kind of superstructure to 22 ft. above low water in place of 18 ft., and capping the stepped courses at the top by large blocks of stone, 20 ft. long and 5 ft. deep, laid across the breakwater, which thus presented a marked resemblance to the upper section of the mound at Civita Vecchia.

The breakwaters built to create harbors along the U.S. coastline are primarily rubble-mound breakwaters. The two old detached breakwaters protecting Delaware Harbor near the southeastern tip of Delaware Bay were made of simple rubble mounds that rise about 13 feet above low water. However, when closing the gap between them at the end of the 19th century, the rubble mound was stopped at low water. Instead, a superstructure was added, featuring stepped layers of large rectangular stone blocks on the ocean and harbor sides, with tightly packed rubble in between and topped with a layer of large blocks for a width of 20 feet, reaching 14 feet above low water, somewhat resembling, on a smaller scale, the upper part of the Civita Vecchia mound (fig. 7). A similar design was used for the new breakwater built between 1897 and 1901 to create a refuge harbor at the mouth of Delaware Bay; however, in this case, the mound was made significantly wider at the top and needed to be protected at the base of the superstructure on the sea side with large stones. The same type of superstructure, also with a narrower base, was implemented for a breakwater in deeper water at San Pedro in California with good results. When a Delaware-type breakwater was being constructed to form a refuge harbor in Sandy Bay, Massachusetts, in front of Rockport north of Boston, the upper 13 feet of the 600-foot completed superstructure was washed away during a severe storm in 1898, leaving only about 5 feet above low water, with the average tide rise there being 8³⁄₅ feet. Consequently, the design was revised in 1902, starting the stepped layers of large stones at 12 feet below mean low water on each slope instead of at low water, raising this type of superstructure to 22 feet above low water instead of 18 feet, and topping the stepped layers with large stone blocks, 20 feet long and 5 feet deep, laid across the breakwater, making it look quite similar to the upper section of the mound at Civita Vecchia.

The breakwater at Sandy Bay just referred to, and the one at Civita Vecchia, which it somewhat resembles, approximate to that class of breakwater which has a superstructure founded below low-water level, so far as stepped courses of blocks Superstructure below low-water level. can be regarded as forming part of a superstructure; but as the protection afforded by these courses differs only in the arrangement of the blocks from that obtained by blocks deposited at random, it appears expedient to restrict this class to the more solid structures, resembling upright-wall breakwaters, founded on a mound at some depth below low water As the main object of this class of breakwater is to keep the mound below the zone of disturbance by waves in severe storms, it is evident that the depth at which the superstructure is founded should vary directly with the exposure of the site, and inversely with the size of the materials forming the mound.

The breakwater at Sandy Bay, mentioned earlier, and the one at Civita Vecchia, which looks somewhat similar, belong to a type of breakwater that has a superstructure built below the low-water level, as far as stepped courses of blocks can be considered a part of a superstructure. However, since the protection provided by these courses only differs in how the blocks are arranged compared to blocks placed randomly, it makes sense to limit this category to sturdier structures that resemble upright-wall breakwaters, built on a mound at a certain depth below low water. The primary purpose of this type of breakwater is to keep the mound below the disturbance zone created by waves during severe storms. Therefore, it's clear that the depth at which the superstructure is built should directly relate to how exposed the site is and inversely relate to the size of the materials that make up the mound.

Fig. 8.—Havre Breakwater.

The depth at which waves striking against a superstructure may affect a rubble mound near its toe by the recoil, has been only very gradually realized. Thus, in 1847, the Alderney breakwater, though fully exposed to the Atlantic Ocean, was begun with a superstructure founded at low water of spring tides upon a rubble mound; but within two years the foundations had to be carried down 12 it. below low water, and this was adhered to till close to the head, though the breakwater, completed in 1864, extended 4700 ft. from the shore into a depth of 130 ft. at low tide, the rise of springs being 17 ft. The great recoil of the waves in storms from the promenade wall on the sea side of the superstructure, raised 33 ft. above low water, disturbed the sea slope of the mound along the outer portion, situated in depths of 80 to 130 ft. at low water, out to a distance of 90 ft. from the superstructure and to a depth of 20 ft.; whilst the outer toe of the superstructure was only preserved from being undermined by frequent deposits of stone along the sea face.

The depth at which waves hit a superstructure can impact a rubble mound near its base due to the recoil, has been slowly recognized. In 1847, the Alderney breakwater, which was fully exposed to the Atlantic Ocean, started with a superstructure built at low water during spring tides on a rubble mound. However, within two years, the foundations had to be extended down 12 feet below low water, and this level was maintained almost up to the end, even though the breakwater, finished in 1864, stretched 4,700 feet from the shore into a depth of 130 feet at low tide, with a rise of 17 feet during spring tides. The strong recoil of the waves during storms from the promenade wall on the seaward side of the superstructure, which was 33 feet above low water, disrupted the sea slope of the mound along the outer section, located in depths of 80 to 130 feet at low water, extending out 90 feet from the superstructure and to a depth of 20 feet; while the outer edge of the superstructure was kept from being eroded by frequent deposits of stone along the seafront.

The south-west breakwater at Colombo Harbour, constructed in 1876-1884, facing the seas raised by the south-west monsoon, extends into a depth of 39 ft. at low water, where the rise of tide is only 2 ft. at springs, and was built with a superstructure founded upon a rubble mound at a depth of 20 ft. below low water, but raised only 12 ft. above this level without any parapet, and protected along its sea face by an apron of concrete in bags. In this case, not only was the depth of the sea much less than at Alderney, but the small elevation of the superstructure above low water enabled a portion of the waves in storms to pass over it without materially impairing the shelter inside. These circumstances reduced the shock and recoil of the waves; and the greater depth of the foundations and the protection of the toe of the superstructure greatly diminished the danger of undermining. Consequently, the Colombo breakwater has been preserved from the injuries to which the outer part of the Alderney breakwater succumbed. Nevertheless, in subsequently constructing the north-west detached breakwater, less exposed to the south-west monsoon, but in somewhat deeper water (see Colombo), the experience of the action of the sea on the south-west breakwater led to the laying of the foundations of the superstructure on the rubble mound at 30¾ ft. below low water (fig. 9).

The south-west breakwater at Colombo Harbour, built between 1876 and 1884 to face the rough seas created by the south-west monsoon, extends to a depth of 39 ft. at low tide, where the tidal rise is only 2 ft. at spring tides. It was constructed with a superstructure resting on a rubble mound at a depth of 20 ft. below low water, raised only 12 ft. above this level without any parapet, and is protected along its seafront by an apron of concrete bags. In this case, not only was the sea depth much less than that at Alderney, but the low elevation of the superstructure above low water allowed some storm waves to pass over it without significantly affecting the shelter inside. These factors reduced the impact and rebound of the waves, while the deeper foundations and the protection of the superstructure’s base significantly decreased the risk of erosion. As a result, the Colombo breakwater has avoided the damage that the outer section of the Alderney breakwater experienced. However, when building the north-west detached breakwater, which is less exposed to the south-west monsoon but located in slightly deeper water (see Colombo), the experience with the south-west breakwater informed the decision to place the foundations of the superstructure on the rubble mound at 30¾ ft. below low water (fig. 9).

The breakwater for sheltering Peterhead Bay, where the rise of springs is 11¼ ft., was begun in 1888, and designed to extend into a depth of 9½ fathoms at low water (see Harbour). It was built as an upright wall upon the rocky bottom for 1000 ft. from the shore; but owing to the increase in depth it was decided to construct the outer portion with a rubble base, surmounted by a superstructure originally designed to be founded 30 ft. below low water. As, however, during a storm in October 1898, the recoil of the waves from the breakwater, which is provided with a promenade wall rising about 35 ft. above low water, disturbed rubble to a depth of 36½ ft., the superstructure has been founded 43 ft. below low water on the rubble base; and its outer toe is protected from being undermined by two rows of concrete blocks on the rubble mound.

The breakwater designed to protect Peterhead Bay, where the spring tide rises 11¼ ft., started construction in 1888 and was meant to extend into a depth of 9½ fathoms at low water (see Harbour). It was built as a vertical wall on the rocky seabed extending 1000 ft. from the shore; however, due to the increasing depth, it was decided to build the outer section with a rubble base topped by a superstructure that was originally planned to be built 30 ft. below low water. However, during a storm in October 1898, the wave rebound from the breakwater, which features a promenade wall rising about 35 ft. above low water, disturbed the rubble to a depth of 36½ ft., so the superstructure was ultimately built 43 ft. below low water on the rubble base; and its outer edge is protected against erosion by two rows of concrete blocks on the rubble mound.

Fig. 9.—Colombo North-West Breakwater.

Formerly, in constructing a large superstructure upon a rubble mound, it was a common practice to build a sea wall and a harbour wall several feet apart, and to fill up the intermediate,. space between them with rubble, so as economically to Construction of the superstructure. form a wide structure on the top of the mound, and provide an adequate width for a quay along the top. A sheltering wall was also generally erected on the sea side. This, for instance, was the system of construction adopted for the superstructures, founded at low water, of Holyhead breakwater, Portland inner breakwater, and St Catherine’s, Jersey, breakwater. Alderney breakwater, the Tyne breakwaters and Colombo south-west breakwater were also commenced with a precisely similar method of construction. The system, however, possesses a Very serious defect for exposed situations, namely, that if once the sea can force a small opening through the sea wall, the scooping out of the rubble filling, and the overthrow of the thinner harbour wall are rapidly accomplished if the storm continues or recurs before repairs can be effected. Experience soon proved at Alderney and Tynemouth the unsuitability of the system for very exposed situations; and the intermediate rubble filling was replaced by solid hearting down to a certain depth. At Colombo, after the first 1326 ft. of the south-west breakwater had been built with two walls and intermediate rubble for the superstructure, as the exposure proved greater than had been anticipated, and a slight displacement of part of the sea wall, 24 ft. wide, had occurred, the rubble filling was discontinued, and the two walls were united into a solid superstructure 34 ft. in width.

In the past, when building a large superstructure on a rubble mound, it was common to construct a sea wall and a harbor wall several feet apart, filling the space in between with rubble to efficiently create a wide structure on top of the mound and allow for a sufficient quay width along the top. A protective wall was also usually built on the seaside. This was the construction method used for the superstructures built at low water for Holyhead breakwater, Portland inner breakwater, and St. Catherine’s breakwater in Jersey. Similar construction methods were applied for Alderney breakwater, the Tyne breakwaters, and Colombo's south-west breakwater. However, this system has a serious flaw in exposed areas: once the sea manages to create a small opening in the sea wall, the rubble filling is quickly washed away, and the thinner harbor wall can be knocked down if the storm continues or returns before repairs can be made. Experience at Alderney and Tynemouth soon showed that this method was not suitable for very exposed locations; thus, the rubble filling was replaced with solid material down to a certain depth. In Colombo, after the first 1326 ft. of the south-west breakwater was constructed with two walls and rubble filling for the superstructure, it became clear that the exposure was greater than expected, and a slight displacement of the 24 ft. wide sea wall occurred. As a result, the rubble filling was stopped, and the two walls were combined into a solid superstructure 34 ft. wide.

Fig. 10.—Colombo North-West Breakwater with Titan Crane.

A difficulty experienced in constructing a solid superstructure on the top of a rubble mound consists in the settlement of the mound which takes place when the weight of the superstructure comes on it, in spite of the consolidation of the sloping block system. rubble under the action of the sea for one or two years before the erection of the superstructure on it is undertaken. When the superstructure is carried out in long stepped-forward courses, irregular settlement is particularly liable to occur, as the weight is progressively imposed in an uneven manner on the yielding rubble, in proportion to the height of the rubble base and its deficiency in compactness. The open joints between the blocks laid below low water enable the air to penetrate, on the recoil of the waves at low tide, into any internal fissures resulting from settlement; and the following wave, on striking the superstructure, 479 compresses the air inside, which, on its expansion when the wave recedes, forces out any unconnected face stones. The hole thus formed is rapidly enlarged by the sea if the storm continues; and a breach is eventually formed. The sloping-block system was, accordingly devised to provide against the dislocation of superstructures by the inevitable irregular settlement, by forming them of a series of sloping sections, composed of concrete blocks laid at an angle, free to settle independently on the mound, as shown in fig. 10. In the first superstructure thus constructed, in 1869-1874, at the entrance to Karachi harbour, founded 15 ft. below low water on a rubble mound and 24 ft. high, the blocks in each section, consisting of two rows of three superposed blocks laid at an inclination of 76° shorewards, were entirely unconnected; and, consequently, though the superstructure offered as little opposition as practicable to the waves by having its top slightly below high water, the waves in a storm forcing their way into the vertical joint between the two rows, threw some of the top 27-ton blocks of the inner row down on the harbour slope of the mound. This cause of damage was obviated in effecting the repairs, by connecting the top blocks with the next ones by stone dowels. The superstructures of the breakwaters forming Madras harbour, commenced in 1876, were similarly constructed in sloping, independent sections, 4½ ft. thick, composed of two distinct rows of four tiers of blocks founded upon a rubble mound 22 ft. below low water (the rise of tide at springs being 313 ft.), and raised 3½ ft. above high water. The blocks in each row were connected by a tenon, projecting at the top of each block, fitting into a mortise in the block above it. The retention of the vertical joint however, between the two rows led to the overthrow of the greater part of the superstructures of the outer arms at Madras, situated in a depth of 45 ft. and facing the Indian Ocean, during a cyclone of 1881. In the reconstruction of these superstructures, bond was introduced in the successive tiers of each sloping section; and the blocks of the two upper tiers were cramped together. Alter settlement on the mound had ceased, a thick capping of mass concrete was laid all along the top of the superstructure; and, finally, a mound of concrete blocks was deposited at random on the mound in front of the sea face of the superstructure to break the force of the waves and prevent undermining. A similar wave-breaker, with blocks somewhat specially arranged, was deposited in front of the sloping concrete-block superstructure of the breakwater sheltering the Portuguese harbour of Marmagao on the west coast of India, more particularly with the object of preventing the undermining of the superstructure founded only 18 ft. below low water of spring tides, on a layer of rubble spread on the muddy sea-bottom, the settlement in this case being occasioned by the yielding of the soft clay bed. This breakwater having been commenced in 1884, subsequently to the failure at Madras, the superstructure, formed of concrete blocks weighing 28½ to 37½ tons was built in accordance with the design adopted for the reconstructed outer arms at Madras, with the exceptions that the separate sections were given a slope of 70° instead of 76° shorewards to ensure greater stability, that the superstructure was made 30 ft in width instead of 24 ft., that the top tier of blocks in each section was secured to the next tier by two dowels, each formed of a bundle of four rails, penetrating 3½ ft. into each tier, so as to enable the top courses to be more correctly aligned than with tenons and mortises, and that the outer side of the continuous concrete-in-mass capping was raised about 22 ft. above low water (fig. 11). The rise of spring tides at Marmagao is 6 ft.

A challenge faced when building a strong superstructure on top of a rubble mound is the settlement of the mound that occurs when the superstructure's weight is applied, even after the rubble has been compacted by sea action for one or two years before the superstructure is constructed. If the superstructure is built using long, stepped courses, uneven settlement is more likely to happen, as the weight is applied unevenly to the yielding rubble, depending on the height of the rubble base and its lack of compactness. The open joints between the blocks placed below low tide allow air to seep in during low tide when waves recede, entering any internal cracks caused by settlement; when the following wave hits the superstructure, it compresses the air inside, which, upon expansion as the wave retreats, pushes out any loose face stones. The resulting hole can quickly widen if a storm continues, leading to a breach. The sloping-block system was created to counteract the dislocation of superstructures caused by inevitable uneven settlement, by combining sloping sections made of concrete blocks laid at an angle, allowing them to settle independently on the mound, as shown in fig. 10. In the first superstructure built between 1869 and 1874 at the entrance to Karachi harbor, which was based 15 ft below low tide on a rubble mound and 24 ft high, the blocks in each section consisted of two rows of three stacked blocks leaned at a 76° angle toward the shore and were completely unconnected. Although the superstructure minimized resistance to waves by keeping its top slightly below high tide, storm waves forced their way into the vertical joint between the two rows, causing some of the 27-ton blocks from the inner row to slide down the harbor slope of the mound. This issue was fixed during repairs by connecting the top blocks to the next ones with stone dowels. Similarly, the superstructures of the breakwaters defining Madras harbor, which started in 1876, were built in independent sloping sections 4½ ft thick, made up of two separate rows of four tiers of blocks resting on a rubble mound 22 ft below low tide (with spring tides rising 3 ft 1 in) and extending 3½ ft above high tide. The blocks in each row were joined by a tenon at the top of each block fitting into a mortise in the block above it. However, maintaining the vertical joint between the two rows led to the collapse of most of the superstructures on the outer arms at Madras, situated in 45 ft of water and facing the Indian Ocean, during a cyclone in 1881. In rebuilding these superstructures, bond was introduced in the successive tiers of each sloping section, and the blocks of the two upper tiers were tightly secured together. After settlement on the mound had stopped, a thick layer of mass concrete was spread across the top of the superstructure, and finally, a mound of concrete blocks was randomly placed in front of the superstructure's seaward face to absorb wave impacts and prevent erosion. A similar wave barrier, with blocks arranged in a specific way, was placed in front of the sloping concrete-block superstructure of the breakwater protecting the Portuguese harbor of Marmagao on the west coast of India, specifically to prevent erosion of the superstructure, which was only built 18 ft below low tide on a layer of rubble laid on a soft muddy seabed. This breakwater started in 1884, following the failure at Madras, and the superstructure, made of concrete blocks weighing between 28½ to 37½ tons, was constructed based on the design used for the rebuilt outer arms at Madras, with the exceptions being that the separate sections had a slope of 70° instead of 76° toward shore to provide more stability, the superstructure width increased to 30 ft from 24 ft, the top tier of blocks in each section was secured to the next tier with two dowels made from a bundle of four rails, each driven 3½ ft into each tier to allow better alignment compared to using tenons and mortises, and the outer side of the continuous mass concrete capping was raised about 22 ft above low tide (fig. 11). The rise of spring tides at Marmagao is 6 ft.

At Colombo the superstructures of both the south-west and north-west breakwaters were built on the sloping-block system in sections 5½ ft. thick, and built at an angle of 68° shorewards (fig. 10); and the blocks, from 16½ to 31 tons in weight, were laid in bonded courses across each section, with four tiers of blocks in the south-west breakwater founded 20 ft. below low water on the rubble mound, and six tiers of blocks in the north-west breakwater, founded 30¾ ft below low water. Five oblong grooves, moreover, were formed in moulding the blocks, in the adjacent faces of each sloping section, extending from top to bottom of the sections. These, when settlement on the mound had ceased, were filled with concrete in bags which not only connected the tiers of blocks in each section together, but also joined the several sections to one another, and effectually closed the transverse joints between the successive sections, which were further connected together by a continuous capping of concrete-in-mass along the whole length of the breakwater.

At Colombo, the superstructures of both the southwest and northwest breakwaters were constructed using a sloping-block system in 5½ ft. thick sections, built at a 68° angle toward the shore (fig. 10). The blocks, weighing between 16½ to 31 tons, were arranged in bonded courses across each section. The southwest breakwater had four tiers of blocks positioned 20 ft. below low water on a rubble mound, while the northwest breakwater had six tiers of blocks located 30¾ ft. below low water. Additionally, five oblong grooves were made in the adjacent faces of each sloping section during the block molding process, extending from the top to the bottom of the sections. Once settling on the mound had stopped, these grooves were filled with concrete in bags, which not only connected the tiers of blocks in each section together but also linked the various sections to one another. This effectively sealed the transverse joints between the successive sections, which were furthermore connected by a continuous layer of mass concrete along the entire length of the breakwater.

Fig. 11.—Marmagao Breakwater.

These sloping blocks are laid by powerful overhanging, block-setting cranes, called Titans (see Cranes), which travel along the completed portion of the breakwater, and lay the blocks in advance on the mound levelled by divers, as shown in fig. 10. The earlier Titans, employed for the sloping-block superstructures at Karachi and Madras, were constructed to travel only backwards and forwards on the completed work, with sufficient sideways movement of the little trolley travelling along the overhanging arm, from which the block is suspended at the proper angle, to lay the blocks for each side of the superstructure. In later forms, however, such for instance as the Titan laying the 14-ton blocks at Peterhead breakwater in horizontal courses, the overhanging arm is supported centrally on a ring of rollers, placed on the top of the truck on which the Titan travels, so that it can revolve and deposit blocks at the side of the superstructure for protecting the mound, as well as in advance of the finished work. These Titans possess the important advantage over the timber staging formerly employed for such breakwaters, that, in exposed situations, they can be moved back into shelter on the approach of a storm, or for the winter or stormy months, instead of, as in the case of staging, remaining out exposed to the danger of being carried away during stormy weather, or necessitating loss of time in erection at the beginning of the working season.

These sloping blocks are placed by powerful cranes called Titans (see Cranes), which move along the completed section of the breakwater and position the blocks on the mound leveled by divers, as shown in fig. 10. The earlier Titans used for the sloping block superstructures at Karachi and Madras were designed to move only back and forth on the completed work, with some sideways movement of a small trolley that moves along the overhanging arm from which the block is hung at the right angle to position the blocks for each side of the superstructure. In later versions, such as the Titan laying the 14-ton blocks at Peterhead breakwater in horizontal layers, the overhanging arm is supported centrally on a ring of rollers on top of the truck that the Titan moves on, allowing it to rotate and place blocks at the side of the superstructure for protecting the mound, as well as in front of the finished work. These Titans have the significant advantage over the wooden staging previously used for such breakwaters because, in exposed areas, they can be moved back to safety when a storm approaches or during the winter months, rather than remaining out in the open and risking being swept away during bad weather or causing delays at the start of the work season.

Though composite breakwaters are still occasionally constructed with a superstructure founded on a rubble mound at, or above, low-water level, these breakwaters are now almost always constructed with the superstructure founded at some depth below low water, even at harbours on the continent of Europe, where formerly broad quays founded at sea-level, protected by a parapet wall and outer concrete blocks, were the regular form of superstructure adopted. The breakwater for the extension of the harbour at Naples provides an interesting example of this change of design. A solid superstructure, formed of large concrete blocks capped with masonry, about 50 ft. wide at the base, is laid on a high rubble mound at a depth of 31 ft. below mean sea-level, and provides a quay on the top, 24½ ft. wide, protected on the sea side by a promenade wall, 10 ft. high and 12½ ft. wide at the top, raised 1923 ft. above sea-level (fig. 12). In view of the increased depth at which superstructures are now founded upon rubble mounds, causing the breakwaters to approximate more and more to the upright-wall type, it might seem at first sight that the rubble base might be dispensed with, and the superstructure founded directly on the bed of the sea. Two circumstances, however, still render the composite form of breakwater indispensable in certain cases: (1) the great depth into which breakwaters have sometimes to extend, reaching about 56 ft. below low water at Peterhead, and 102 ft. below mean sea-level at Naples; and (2) the necessity, where the sea-bottom is soft or liable: to be eroded by scour, of interposing a wide base between the upright superstructure and the bed of the sea.

Though composite breakwaters are still occasionally built with a superstructure resting on a rubble mound at or above low-water level, these breakwaters are now almost always constructed with the superstructure founded some depth below low water, even at harbors in Europe, where broad quays at sea level, protected by a parapet wall and outer concrete blocks, were previously the standard design. The breakwater for the extension of the harbor in Naples is an interesting example of this design shift. A solid superstructure made of large concrete blocks topped with masonry, approximately 50 ft. wide at the base, is placed on a high rubble mound at a depth of 31 ft. below mean sea level, and provides a quay on top that is 24½ ft. wide, protected on the seaward side by a promenade wall that is 10 ft. high and 12½ ft. wide at the top, raised 1923 ft. above sea level (fig. 12). Given the increased depth at which superstructures are now founded on rubble mounds, causing the breakwaters to resemble the upright-wall type more closely, it might seem at first glance that the rubble base could be eliminated, and the superstructure placed directly on the seabed. However, two factors still make the composite form of breakwater necessary in certain cases: (1) the significant depth to which breakwaters sometimes need to extend, reaching about 56 ft. below low water at Peterhead, and 102 ft. below mean sea level at Naples; and (2) the requirement, where the sea bottom is soft or prone to erosion from scour, to have a wide base between the upright superstructure and the seabed.

Fig. 12.—Naples Harbor Extension Breakwater.

The injuries to which composite breakwaters appear to have been specially subject must be attributed to the greater exposure and depth of the sites in which they have been frequently constructed, as compared with rubble mounds or upright walls. The latter types, indeed, are not well suited for erection in deep water, in the first case, on account of the very large quantity of materials required 480 for a high mound with flat slopes, and in the second, owing to the increased pressure of air under which divers have to work in laying blocks for an upright wall in deep water. The ample depth in which superstructures are founded, the due protection afforded to their outer toe, the adoption of the sloping-block system for their construction, and the dispensing in most cases with a high sheltering wall on the sea side of the superstructure, render modern superstructures as stable as upright-wall breakwaters of similar height. Nevertheless, superstructures require to be given a greater thickness than similar upright walls, because the greater depth of water in which such composite breakwaters are built causes them to be exposed to larger waves under similar conditions.

The injuries that composite breakwaters seem to experience more often can be attributed to their greater exposure and the depth of the locations where they are typically built, compared to rubble mounds or vertical walls. The latter types are not really suitable for construction in deep water, mainly because a huge amount of materials is needed for a tall mound with gentle slopes, and also due to the increased air pressure that divers face when laying blocks for a vertical wall in deeper water. The significant depth at which superstructures are placed, the proper protection for their outer toe, the use of a sloping-block construction method, and often not having a tall protective wall on the seaward side of the superstructure make modern superstructures as stable as vertical breakwaters of the same height. However, superstructures need to be thicker than similar vertical walls because the greater water depth where composite breakwaters are built exposes them to larger waves under the same conditions.

The superstructures of composite breakwaters erected by the United States for harbours on the shores of Lake Superior were formerly in some cases composed of timber cribs floated into position and sunk by filling them with rubble stone. On account of the cheapness of timber several years ago in those regions, this simple mode of construction was also economical, even though the rapid decay of the timber in the portions of the cribs where it was alternately wet and dry involved its renewal about every fifteen years on the average. Owing, however, to the fact that the price of timber has increased considerably, whilst that of Portland cement has been reduced, durable concrete superstructures are beginning to be substituted for the rapidly decaying cribwork structures.

The superstructures of composite breakwaters built by the United States for harbors along the shores of Lake Superior used to be made in some cases from timber cribs that were floated into place and then sunk by filling them with rubble stone. Because timber was cheap in those areas several years ago, this simple construction method was cost-effective, even though the timber in the parts of the cribs that were alternately wet and dry decayed quickly and needed to be replaced about every fifteen years on average. However, since the price of timber has significantly increased while the price of Portland cement has decreased, durable concrete superstructures are starting to replace the quickly decaying cribwork structures.

With the exception perhaps of the Alderney breakwater, which, owing to its exceptional exposure and the unparalleled depth into which it extended, had its superstructure so often breached by the sea that, owing to the cost of maintenance, the inner portion only has been kept in repair, the composite breakwater of Bilbao harbour has probably proved the most difficult to construct on account of its great exposure. The original design consisted of a wide rubble mound up to about 16½ ft. below low water, a mound of large concrete blocks up to low water of equinoctial spring tides, and a solid masonry superstructure well protected at its outer toe by a projection of masonry, and raised several feet above high water, forming a quay sheltered by a promenade wall. The rise of equinoctial spring tides at the mouth of the river Nervion is 14¾ ft. In carrying out the work, however, the superstructure built in the summer months was for the most part destroyed by the following winter storms; and, accordingly, the superstructure was eventually constructed on a widened rubble base, so as to be sheltered to some extent by the outlying concrete-block mound already deposited, a system subsequently adopted in rebuilding the damaged portion of the North Pier at Tynemouth under shelter of the ruins of the previous work. The modified superstructure of the Bilbao breakwater was founded on the extended rubble mound at a depth of 16¼ ft. below low water, and formed of iron caissons partially filled with concrete and floated out, sunk in position, and filled up with concrete blocks and concrete. It thus consists of a continuous row of concrete blocks, each of them being 4223 ft. in width across the breakwater, 23 ft. in length along the line of the breakwater, 23 ft. high, and weighing 1400 tons. These caisson blocks, raised 6¾ ft. above low water, form the base of the superstructure, upon which the upper part was built of concrete blocks on each face with mass concrete filling between them, forming a continuous quay, 24 ft. wide, raised 8 ft. above high tide, and slightly sheltered by a curved parapet block only 5 ft. high. The outer toe of the caisson blocks is protected from being undermined by two tiers of large concrete blocks laid flat on the rubble mound. This superstructure has successfully resisted the attacks of the Atlantic waves rolling into the bay. At this breakwater and at Tynemouth advantage has been taken of the protection unintentionally provided by previous failures, by which the waves are broken before reaching the superstructure and pier respectively; but instead of introducing a wave-breaker of concrete blocks, for a protection to the superstructure, as arranged at Marmagao (fig. 11) and the outer arms at Madras, it would appear preferable to increase the width of the solid superstructure, if necessary, as carried out at Naples (fig. 12). and to dispense with a parapet and keep the superstructure low, as being unsuitable for a quay in exposed situations, according to the plan adopted at Colombo (fig. 9).

With the exception of the Alderney breakwater, which often had its superstructure damaged by the sea due to its high exposure and deep extension, leading to maintenance costs that only allowed for repairs on the inner section, the composite breakwater of Bilbao harbour has likely been the hardest to build because of its severe exposure. The initial design featured a broad rubble mound extending down to about 16½ ft. below low water, a mound of large concrete blocks up to the low water level during equinoctial spring tides, and a solid masonry superstructure that was well protected at its outer edge by a masonry projection and elevated several feet above high water, forming a quay that was sheltered by a promenade wall. The rise of equinoctial spring tides at the mouth of the Nervion River is 14¾ ft. However, the superstructure built during the summer months was mostly destroyed by winter storms that followed; therefore, the superstructure was eventually built on a widened rubble base to provide some shelter from the previously deposited concrete-block mound. This method was later used to rebuild the damaged section of the North Pier at Tynemouth under the cover of the previous structure's ruins. The modified superstructure of the Bilbao breakwater was established on the extended rubble mound at a depth of 16¼ ft. below low water and consisted of iron caissons partially filled with concrete, floated out, placed, and filled with concrete blocks and concrete. It comprises a continuous row of concrete blocks, each measuring 4223 ft. wide across the breakwater, 23 ft. long along the breakwater line, 23 ft. high, and weighing 1400 tons. These caisson blocks, elevated 6¾ ft. above low water, serve as the base for the superstructure, which was built from concrete blocks on each face, with mass concrete filling in between, creating a continuous quay that is 24 ft. wide, raised 8 ft. above high tide, and slightly protected by a curved parapet block measuring only 5 ft. high. The outer edge of the caisson blocks is shielded from being undermined by two layers of large concrete blocks laid flat on the rubble mound. This superstructure has effectively withstood the assault of the Atlantic waves crashing into the bay. Both this breakwater and Tynemouth have utilized the unintended protection provided by past failures, which break the waves before they reach the superstructure and pier, respectively; however, instead of adding a concrete-block wave-breaker for protection, like those at Marmagao (fig. 11) and the outer arms at Madras, it might be better to widen the solid superstructure as needed, similar to what was done in Naples (fig. 12), and to forgo a parapet, keeping the superstructure low, as a higher structure is not suitable for a quay in exposed locations, according to the plan implemented at Colombo (fig. 9).

3. Upright-Wall Breakwaters.—The third type of breakwater consists of a solid structure founded directly on the sea-bottom, in the form of an upright wall, with only a moderate batter on each face. This form of breakwater is strictly limited to sites where the bed of the sea consists of rock, chalk, boulders, or other hard bottom not subject to erosion by scour, and where the depth does not exceed about 40 to 50 ft. If a solid breakwater were erected on a soft yielding bottom, it would be exposed to dislocation from irregular settlement; and such a structure, by obstructing or diverting the existing currents, tends to create a scour along its base; whilst the waves in recoiling from its sea face are very liable to produce erosion of the sea-bottom along its outer toe. Moreover, when the foundations for an upright-wall breakwater have to be levelled by divers, and the blocks laid under water by their help, the extension of such a breakwater into a considerable depth is undesirable on account of the increased pressure imposed upon diving operations.

3. Upright-Wall Breakwaters.—The third type of breakwater is a solid structure built directly on the seabed, resembling an upright wall, with only a slight angle on each side. This kind of breakwater is only suitable for locations where the seabed is made up of rock, chalk, boulders, or other hard materials that won’t erode from currents, and where the depth is no more than about 40 to 50 feet. If a solid breakwater were built on a soft, unstable bottom, it could become misaligned due to uneven settling; additionally, by blocking or changing the flow of existing currents, it can create erosion at its base; while the waves bouncing off its sea face are likely to lead to erosion of the seabed at its outer edge. Furthermore, when the foundations for an upright-wall breakwater need to be leveled by divers, and the blocks are positioned underwater with their assistance, extending such a breakwater into deeper water is not ideal because of the increased pressure on diving operations.

The Admiralty pier at Dover was begun about the middle of the 19th century, and furnishes an early and notable example of an upright-wall breakwater resting upon a hard chalk bottom; and it was subsequently extended to a depth of about 42 ft. at low tide, in connexion with the works for forming a closed naval harbour at Dover. This breakwater, the Prince of Wales pier of the commercial harbour, and the eastern breakwater and detached south breakwater for the naval harbour, were all founded on a levelled bottom, carried down to the hard chalk underlying the surface layer, by means of men in diving-bells. The extension of the Admiralty pier and the other breakwaters of Dover harbour consist of bonded courses of concrete blocks, from 26 to 40 tons in weight, as shown in figs. 13 and 14, the outer blocks above low water being formed on their exposed side with a facing of granite rubble. The blocks, composed of six parts of sand and stones to one part of Portland cement, moulded in frames, and left to set thoroughly in the block-yard before being used, are all joggled together, and above low-water level are bedded in cement and the joints filled with cement grout. The blocks were laid by Goliath travelling cranes running on temporary staging supported at intervals of 50¼ ft. by clusters of iron piles carried down into the chalk bottom. On each line of staging there were four Goliaths, preceded by a stage-erecting machine. The front Goliath was used for working a grab for excavating the surface layer of chalk, which was finally levelled by divers, the second for carrying the diving-bell, the third for laying the blocks below low water, and the fourth for setting the blocks above low water. This succession of Goliaths enabled more rapid progress to be made than with a single Titan at the end of a breakwater; but it involved a considerable increase in the cost of the plant, owing to the temporary staging required. The foundations were carried down from 4 to 6 ft. into the chalk bottom, the deepest being 53 ft. below low water of spring tides, and the average 47 ft. With a rise of tide at springs of 18¾ ft., the average depth is thus approximately 66 ft. at high tide, necessitating a pressure of 29 ℔ on the square inch, which is the limit at which men can work without inconvenience in the diving-bells. The breakwaters are raised about 11 ft. above high water of springs. The detached southern breakwater was finished off at this level; but the extended western breakwater, or Admiralty pier, is provided with a promenade parapet on its exposed side, rising 13 ft. above the quay; and the eastern breakwater also has a parapet on its exposed eastern side, raised, however, only 9 ft. above its quay. The breakwaters are protected from scour along their outer toe by an apron of concrete blocks, extending 25 ft. out from their sea face.

The Admiralty Pier at Dover started construction around the middle of the 19th century and serves as an early and significant example of a vertical-wall breakwater built on a solid chalk base. It was later expanded to a depth of about 42 feet at low tide as part of the project to create a closed naval harbor at Dover. This breakwater, along with the Prince of Wales Pier of the commercial harbor and the eastern and detached southern breakwaters for the naval harbor, was all constructed on a leveled base, which was excavated down to the solid chalk beneath the surface layer by divers using diving bells. The extension of the Admiralty Pier and the other breakwaters at Dover Harbor consists of bonded layers of concrete blocks weighing between 26 and 40 tons, as shown in figures 13 and 14. The outer blocks above low water are faced with granite rubble on their exposed side. These blocks are made up of six parts sand and stone to one part Portland cement, shaped in frames, and allowed to cure thoroughly in the block-yard before use. The blocks fit together securely, and those above low-water level are set in cement with the joints filled with cement grout. They were installed by Goliath traveling cranes operating on temporary staging supported at intervals of 50¼ feet by clusters of iron piles driven into the chalk base. Four Goliath cranes were used for each line of staging, along with a machine for erecting the staging. The front Goliath operated a grab to excavate the surface layer of chalk, which was then leveled by divers; the second crane transported the diving bell, the third laid the blocks below low water, and the fourth set the blocks above low water. This series of Goliaths allowed for quicker progress than using a single Titan at the end of a breakwater but significantly increased equipment costs due to the need for temporary staging. The foundations were dug down 4 to 6 feet into the chalk bottom, with the deepest reaching 53 feet below low water at spring tides and an average depth of 47 feet. With a spring tide rise of 18¾ feet, the average depth at high tide is approximately 66 feet, creating a pressure of 29 pounds per square inch, which is the maximum pressure that divers can handle comfortably in the diving bells. The breakwaters rise about 11 feet above high mean spring tide. The detached southern breakwater was completed at this height; however, the extended western breakwater, or Admiralty Pier, features a promenade parapet on its exposed side that is 13 feet high above the quay, while the eastern breakwater also has an exposed parapet that is only 9 feet high above its quay. The breakwaters are shielded from erosion at their outer edge by a concrete block apron extending 25 feet out from their seafront.

Dover Breakwater.
Fig. 13.
South Breakwater.
Fig. 14.
Admiralty Pier Extension.

The levelling of the foundations for laying the courses of an upright-wall breakwater is costly and tedious, even in chalk; and the expense and delay are considerably enhanced where the bottom is hard rock. Accordingly, in constructing Concrete-bag foundations. two breakwaters at the entrance to Aberdeen harbour on a bottom of granite in 1870-1877, concrete bags were laid on the sea-bed; and these bags, by adapting themselves to the rocky irregularities, obviated levelling the bottom. They formed the foundation for the concrete blocks in the south breakwater; and by the deposit of successive layers of 50-ton concrete bags till they rose above low water, they constituted the whole of the submerged portion of the north breakwater. The 50-ton bags were deposited from hopper barges towed out to the site; and the portions of both breakwaters above low water were carried up with mass concrete. Subsequently, the breakwater at Newhaven was constructed on a foundation of chalk, with lop-ton concrete bags up to low water, and mass concrete above. Still later, the two breakwaters sheltering the approach to the river Wear (see Harbour) and the Sunderland docks were built with a foundation mound of concrete in bags, 56 to 116 tons in weight, on the uneven sea-bottom, raised slightly above low water of spring tides, on which a solid upright wall was erected, formed of concrete blocks on each side faced with granite, filled in the centre and capped on the top with mass concrete. The most exposed northern Roker breakwater, raised about 11 ft. above high water of springs where the rise is 14 ft. 5 in., is devoid of a parapet; but a subway formed near the top in each breakwater gives access to the light on the pierhead in stormy weather (fig. 15). These concrete bags are made by lining the hopper of the barge with jute canvas, which receives the concrete and is 481 sewn up to form a bag whilst the barge is being towed to the site. The concrete is thus deposited unset, and readily accommodates itself to the irregularities of the bottom or of the mound of bags; and sufficient liquid grout oozes out of the canvas when the bag is compressed, to unite the bags into a solid mass, so that with the mass concrete on the top, the breakwater forms a monolith. This system has been extended to the portion of the superstructure of the eastern, little-exposed breakwater of Bilbao harbour below low water, where the rubble mound is of moderate height; but this application of the system appears less satisfactory, as settlement of the superstructure on the mound would produce cracks in the set concrete in the bags.

Laying the foundations for building the upright-wall breakwater is expensive and time-consuming, even in chalk; the costs and delays increase significantly when dealing with hard rock. So, when constructing Concrete block foundations. two breakwaters at the entrance to Aberdeen harbor from 1870 to 1877 on a granite bottom, concrete bags were placed on the sea-bed. These bags adapted to the rocky surface, eliminating the need to level the bottom. They served as the foundation for the concrete blocks in the south breakwater, and by stacking layers of 50-ton concrete bags until they were above low water, they made up the entire submerged portion of the north breakwater. The 50-ton bags were dropped from hopper barges towed out to the location, while the above-water sections of both breakwaters were built using mass concrete. Later, the breakwater at Newhaven was built on a chalk foundation, using 10-ton concrete bags up to low water and mass concrete above that. Even later, two breakwaters protecting the entrance to the River Wear (see Harbour) and the Sunderland docks were constructed with a mound foundation of concrete bags, weighing between 56 and 116 tons, on the uneven sea-bottom, slightly raised above low water during spring tides, on which a solid upright wall was built using concrete blocks faced with granite on both sides, filled in the middle, and capped with mass concrete. The northern Roker breakwater, the most exposed, is raised about 11 ft. above the high water of springs where the rise is 14 ft. 5 in., and does not have a parapet; however, a subway near the top of each breakwater provides access to the light on the pierhead during stormy weather (fig. 15). These concrete bags are created by lining the hopper of the barge with jute canvas, which holds the concrete and is 481 sewn up to form a bag while the barge is towed to the site. The concrete is poured unset, allowing it to mold to the irregularities of the bottom or the mound of bags; enough liquid grout seeps out of the canvas when the bag is compressed to bind the bags into a solid mass, so that with the mass concrete on top, the breakwater becomes a single solid structure. This method has been extended to the superstructure of the eastern, less exposed breakwater of Bilbao harbor below low water, where the rubble mound is of moderate height; however, this application of the system seems less effective, as settling of the superstructure on the mound could lead to cracks in the set concrete in the bags.

Fig. 15.—Sunderland Southern Breakwater.

Foundation blocks of 2500 to 3000 tons have been deposited for raising the walls on each side of the wide portion of the Zeebrugge breakwater (fig. 16) from the sea-bottom to above low water, and also 4400-ton Foundations with large blocks. blocks along the narrow outer portion (see Harbour), by building iron caissons, open at the top, in the dry bed of the Bruges ship-canal, lining them with concrete, and after the canal was filled with water, floating them out one by one in calm weather, sinking them in position by admitting water, and then filling them with concrete under water from closed skips which open at the bottom directly they begin to be raised. The firm sea-bed is levelled by small rubble for receiving the large blocks, whose outer toe is protected from undermining by a layer of big blocks of stone extending out for a width of 50 ft.; and then the breakwater walls are raised above high water by 55-ton concrete blocks, set in cement at low tide; and the upper portions are completed by concrete-in-mass within framing.

Foundation blocks weighing between 2500 and 3000 tons have been placed to build the walls on each side of the wide section of the Zeebrugge breakwater (fig. 16) from the seabed to above low water, along with 4400-ton blocks on the narrow outer section (see Harbour). This was done by constructing iron caissons that are open at the top in the dry bed of the Bruges ship canal, lining them with concrete. Once the canal was filled with water, they were floated out one by one in calm weather, sunk into position by letting in water, and then filled with concrete underwater from closed skips that open at the bottom as soon as they start rising. The strong seabed is leveled with small rubble to support the large blocks, whose outer edge is protected from erosion by a layer of large stones extending outward for 50 feet. Next, the breakwater walls are raised above high water using 55-ton concrete blocks, which are set in cement at low tide; the upper sections are finished with mass concrete within framing.

Sometimes funds are not available for a large plant; and in such cases small upright-wall breakwaters may be constructed in a moderate depth of water on a hard bottom of rock, chalk or boulders, by erecting timber framing in suitable Concrete monoliths. lengths, lining it inside with jute cloth, and then depositing concrete below low water in closed hopper skips lowered to the bottom before releasing the concrete, which must be effected with great care to avoid allowing the concrete to fall through the water. The portion of the breakwater above low water is then raised by tide-work with mass concrete within frames, in which large blocks of stone may be bedded, provided they do not touch one another and are kept away from the face, which should be formed with concrete containing a larger proportion of cement. As long continuous lengths of concrete crack across under variations in temperature, it is advisable to form fine straight divisions across the upper part of a concrete breakwater in construction, as substitutes for irregular cracks.

Sometimes funding isn't available for a large plant, so in those situations, small upright-wall breakwaters can be built in moderate water depths on a hard bottom of rock, chalk, or boulders. This is done by constructing timber frames of suitable lengths, lining them with jute cloth, and then placing concrete below low water using closed hopper skips lowered to the bottom before releasing the concrete. Care must be taken to prevent the concrete from falling through the water. The part of the breakwater above low water is then constructed using mass concrete within frames, where large stone blocks can be set in place, making sure they don’t touch each other and are kept away from the face, which should be formed with concrete that has a higher cement content. Because long continuous lengths of concrete can crack due to temperature changes, it’s a good idea to create fine straight divisions across the upper part of a concrete breakwater during construction to act as alternatives to irregular cracks.

Fig. 16.—Zeebrugge Harbour Breakwater with Quay.

Upright-wall breakwaters should not be formed with two narrow walls and intermediate filling, as the safety of such a breakwater depends entirely on the sea-wall being maintained intact. A warning of the danger of this system of construction, combined with a high parapet, was furnished by the south breakwater of Newcastle harbour in Dundrum Bay, Ireland, which was breached by a storm in 1868, and eventually almost wholly destroyed; whilst its ruins for many years filled up the harbour which it had been erected to protect. In designing its reconstruction in 1897, it was found possible to provide a solid upright wall of suitable strength with the materials scattered over the harbour, together with an extension needed for providing proper protection at the entrance. This work was completed in 1906.

Upright-wall breakwaters shouldn't be built with two narrow walls and fill in between, as the safety of such a breakwater relies entirely on keeping the sea wall intact. A warning about the dangers of this construction method, especially when combined with a tall parapet, was given by the south breakwater of Newcastle harbor in Dundrum Bay, Ireland, which was damaged by a storm in 1868 and eventually almost completely destroyed; its ruins filled the harbor it was meant to protect for many years. When redesigning its reconstruction in 1897, it was determined that it was possible to create a strong upright wall using materials found around the harbor, along with an extension necessary for proper protection at the entrance. This work was finished in 1906.

Upright-wall breakwaters and superstructures are generally made of the same thickness throughout, irrespective of the differences in depth and exposure which are often met with in different parts of the same breakwater. This may be accounted for by the general custom of regarding the top of an upright wall or superstructure as a quay, which should naturally be given a uniform width; and this view has also led to the very general practice of sheltering the top of these structures with a parapet. Generally the width is proportioned to the most exposed part, so that the only result is an excess of expenditure in the inner portion to secure uniformity. When, however, as at Madras, the width of the structure is reduced to a minimum, the action of the sea demonstrates that the strength of the structure must be proportioned to the depth and exposure. In small fishery piers, where great economy is essential to obtain the maximum shelter at limited expense, it appears expedient to make the width of the breakwater proportionate to the depth. This was done in Babbacombe Bay; and in reconstructing the southern breakwater at Newcastle, Ireland, advantage was taken of a change in direction of the outer half to introduce an addition to the width, so as to make the strength of the breakwater proportionate to the increase in depth and exposure. In large structures, however, uniformity of design may be desirable for each straight length of breakwater; though where two or more breakwaters or outer arms enclose a harbour, the design should obviously be modified to suit the depth and exposure. At Colombo harbour, the superstructure of the less exposed north-west breakwater has been made slightly narrower than that of the south-west breakwater; and a simple rubble mound shelters the harbour from the moderate north-east monsoon. In special cases, where a breakwater has to serve as a quay, like the Admiralty pier at Dover, a high parapet wall is essential; but in most cases, where a parapet merely enables the breakwater to be more readily accessible in moderate weather, it would be advisable to keep it very low, or to dispense with it altogether, as at the southern Dover breakwater, the northern breakwater at Sunderland, and the Colombo western breakwaters. This course is particularly expedient in very exposed sites, as a high parapet intensifies the shock of the waves against a breakwater and their erosive recoil. Moreover, when a light has to be attended to at the end of a breakwater, sheltered access can be provided by a subway, as at Sunderland.

Upright-wall breakwaters and superstructures are typically made with the same thickness throughout, regardless of the differences in depth and exposure often found in various parts of the same breakwater. This is largely due to the common practice of viewing the top of an upright wall or superstructure as a quay, which should naturally have a consistent width; this perspective has also led to the widespread practice of protecting the top of these structures with a parapet. Usually, the width is designed based on the most exposed section, resulting in unnecessary costs in the inner area to maintain uniformity. However, as seen at Madras, when the structure's width is minimized, the sea's action shows that the structure’s strength needs to match the depth and exposure. In smaller fishery piers, where cost-effectiveness is key to maximizing shelter at a limited expense, it makes sense to make the breakwater's width proportional to the depth. This was applied in Babbacombe Bay; and while reconstructing the southern breakwater at Newcastle, Ireland, a change in the outer half's direction allowed for a width increase to ensure the breakwater’s strength corresponded to the greater depth and exposure. In larger structures, however, having a consistent design may be preferable for each straight section of the breakwater; although when two or more breakwaters or outer arms surround a harbor, the design should clearly adapt to the depth and exposure. At Colombo harbor, the superstructure of the less exposed north-west breakwater is slightly narrower than that of the south-west breakwater; and a simple rubble mound protects the harbor from the moderate north-east monsoon. In specific situations, where a breakwater needs to function as a quay, like the Admiralty pier at Dover, a tall parapet wall is necessary; but in most cases, where a parapet simply makes the breakwater more accessible in moderate weather, it’s advisable to keep it very low or eliminate it entirely, as seen at the southern Dover breakwater, the northern breakwater at Sunderland, and the Colombo western breakwaters. This approach is especially beneficial in very exposed locations, as a high parapet increases the impact of waves against a breakwater and their erosive rebound. Additionally, when a light needs attention at the end of a breakwater, a sheltered access can be created with a subway, like at Sunderland.

Structures in the sea almost always require works of maintenance; and when a severe storm has caused any injury, it is most important to carry out the repairs at the earliest available moment, as the waves rapidly enlarge any holes that they may have formed in weak places.

Structures in the ocean usually need regular maintenance, and when a serious storm has caused damage, it's crucial to make repairs as soon as possible since the waves quickly widen any holes that may have appeared in vulnerable areas.

(L. F. V.-H.)

BRÉAL, MICHEL JULES ALFRED (1832-   ), French philologist, was born on the 26th of March 1832, at Landau in Rhenish Bavaria, of French parents. After studying at Weissenburg, Metz and Paris, he entered the École Normale in 1852. In 1857 he went to Berlin, where he studied Sanskrit under Bopp and Weber. On his return to France he obtained an appointment in the department of oriental MSS. at the Bibliothèque Impériale. In 1864 he became professor of comparative grammar at the Collège de France, in 1875 member of the Académie des Inscriptions et Belles-lettres, in 1879 inspecteur-général of public instruction for higher schools until the abolition of the office in 1888. In 1890 he was made commander of the Legion of Honour. Among his works, which deal mainly with mythological and philological subjects, may be mentioned: L’Étude des origines de la religion Zoroastrienne (1862), for which a prize was awarded him by the Académie des Inscriptions; Hercule et Cacus (1863), in which he disputes the principles of the symbolic school in the interpretation of myths; Le Mythe d’Oedipe (1864); Les Tables Eugubines (1875); Mélanges de mythologie et de linguistique (2nd. ed., 1882); Leçons de mots (1882,1886), Dictionnaire étymologique latin (1885) and Grammaire latine (1890). His Essai de Sémantique (1897), on the signification of words, has been translated into English by Mrs H. Cust with preface by J.P. Postgate. His translation of Bopp’s Comparative Grammar (1866-1874), with introductions, is highly valued. He has also written pamphlets on education in France, the teaching of ancient languages, and the reform of French orthography. In 1906 he published Pour mieux connaître Homère.

BRÉAL, MICHEL JULES ALFRED (1832-   ), French philologist, was born on March 26, 1832, in Landau, Rhenish Bavaria, to French parents. After studying at Weissenburg, Metz, and Paris, he entered the École Normale in 1852. In 1857, he went to Berlin, where he studied Sanskrit under Bopp and Weber. After returning to France, he got a position in the department of oriental manuscripts at the Bibliothèque Impériale. In 1864, he became a professor of comparative grammar at the Collège de France, in 1875 he joined the Académie des Inscriptions et Belles-lettres, and in 1879 he became the inspector general of public instruction for higher schools until the office was abolished in 1888. In 1890, he was made a commander of the Legion of Honour. His works, mainly focused on mythological and philological topics, include: L’Étude des origines de la religion Zoroastrienne (1862), for which he received a prize from the Académie des Inscriptions; Hercule et Cacus (1863), where he challenges the principles of the symbolic school in myth interpretation; Le Mythe d’Oedipe (1864); Les Tables Eugubines (1875); Mélanges de mythologie et de linguistique (2nd ed., 1882); Leçons de mots (1882, 1886), Dictionnaire étymologique latin (1885), and Grammaire latine (1890). His Essai de Sémantique (1897), about the meaning of words, has been translated into English by Mrs. H. Cust with a preface by J.P. Postgate. His translation of Bopp’s Comparative Grammar (1866-1874), which includes introductions, is highly regarded. He has also written pamphlets on education in France, the teaching of ancient languages, and the reform of French spelling. In 1906, he published Pour mieux connaître Homère.


BREAM (Abramis), a fish of the Cyprinid family, characterized by a deep, strongly compressed body, with short dorsal and long anal fins, the latter with more than sixteen branched rays, and the small inferior mouth. There are two species in the British Isles, the common bream, A. brama, reaching a length of 2 ft. and a weight of 12 ℔, and the white bream or bream flat, A. blicca, a smaller and, in most places, rarer species. Both occur in slow-running rivers, canals, ponds and reservoirs. Bream are usually despised for the table in England, but fish from large lakes, if well prepared, are by no means deserving of ostracism. In the days of medieval abbeys, when the provident Cistercian monks attached great importance to pond culture, they gave the first place to the tench and bream, the carp still being unknown in the greater part of Europe. At the present day, the poorer Jews in large English cities make a great consumption 482 of bream—and other Cyprinids, most of them being imported alive from Holland and sold in the Jewish fish markets. In America the name bream is commonly given to the golden shiner minnow (Abramis chrysoleucus), to the pumpkin-seed sunfish (Eupomotis gibbosus), and to some kinds of porgy (Sparidae).

BREAM (Abramis) is a fish from the Cyprinid family, known for its deep, flattened body, short dorsal fin, and long anal fin with more than sixteen branched rays, along with a small inferior mouth. In the British Isles, there are two species: the common bream, A. brama, which can grow up to 2 feet long and weigh 12 lbs, and the white bream or bream flat, A. blicca, which is smaller and typically rarer. Both species are found in slow-moving rivers, canals, ponds, and reservoirs. In England, bream are often looked down upon as food, but fish from large lakes, when prepared properly, should not be dismissed. Back in the medieval abbey days, Cistercian monks prioritized pond culture and considered bream and tench as the main catches, long before carp became popular in much of Europe. Nowadays, poorer Jewish communities in large English cities consume a lot of bream—and other Cyprinids—most of which are imported alive from Holland and sold in Jewish fish markets. In America, the term bream is often used to refer to the golden shiner minnow (Abramis chrysoleucus), pumpkin-seed sunfish (Eupomotis gibbosus), and several types of porgy (Sparidae).


BREAST (a word common to Teutonic languages, of the Ger. Brust, possibly connected with an O. Sax. brustian, to bud), the term properly confined to the external projecting parts of the thorax in females, which contain the mammary glands (for anatomy, and diseases, see Mammary Gland); more generally it is used of the external part of the thorax in animals, including man, lying between the neck and the abdomen.

BREAST (a word found in Teutonic languages, from the Ger. Brust, possibly related to O. Sax. brustian, meaning to bud), specifically refers to the external protruding parts of the thorax in females that contain the mammary glands (for details on anatomy and diseases, see Mammary Gland); more broadly, it describes the external part of the thorax in animals, including humans, located between the neck and the abdomen.


BREAUTÉ, FALKES DE (d. 1226), one of the foreign mercenaries of King John of England, from whom he received in marriage the heiress of the earldom of Devon. On the outbreak of the Barons’ War (1215) the king gave him the sheriffdoms of six midland shires and the custody of many castles. He fulfilled his military duties with as much skill as cruelty. The royalists owed to his daring the decisive victory of Lincoln (1217). But after the death of William Marshal, earl of Pembroke, Falkes joined the feudal opposition in conspiring against Hubert de Burgh. Deprived in 1223 of most of his honours, he was drawn into a rebellion by the imprudence of his brother, who captured a royal justice and threw him into prison (1224). Falkes was allowed to go into exile after his submission, and endeavoured to obtain a pardon through the mediation of Pope Honorius III. But this was refused, and Falkes died at St Cyriac in 1226.

BREAUTÉ, FALKES DE (d. 1226), was one of King John's foreign mercenaries in England. He married the heiress of the earldom of Devon. When the Barons' War broke out in 1215, the king gave him the positions of sheriff in six midland counties and control over several castles. He carried out his military obligations with both skill and brutality. The royalists credited him with the key victory at Lincoln in 1217. However, after William Marshal, the earl of Pembroke, died, Falkes turned against the king and conspired against Hubert de Burgh. In 1223, he lost most of his titles and was pulled into a rebellion due to his brother's reckless actions, which included capturing a royal justice and imprisoning him in 1224. After he submitted, he was allowed to go into exile and sought a pardon through Pope Honorius III, but it was denied. Falkes died at St Cyriac in 1226.

See Shirley, Royal Letters, vol. i.; the Patent and Close Rolls; Pauli, Geschichte von England, vol. i. pp. 540-545.

See Shirley, Royal Letters, vol. i.; the Patent and Close Rolls; Pauli, Geschichte von England, vol. i. pp. 540-545.

(H. W. C. D.)

BRECCIA, in petrology, the name given to rocks consisting of angular fragments embedded in a matrix. They may be composed of volcanic rocks, limestones, siliceous charts, sandstones, in fact of any kind of material, and the matrix, which usually corresponds to some extent to the fragments it encloses, may be siliceous, calcareous, argillaceous, &c. The distinctive character of the group is the sharp-edged and unworn shapes of the fragments; in conglomerates the pebbles are rounded and water-worn, having been transported by waves and currents from some distance. There are many ways in which breccias may originate. Some are formed by ordinary processes of atmospheric erosion; frost, rain and gravity break up exposed surfaces of rock and detach pieces of all sizes; in this way screes are formed at the bases of cliffs, and barren mountain-tops are covered with broken debris. If such accumulations gather and are changed into hard rock by pressure and other indurating agencies they make typical breccias. Conglomerates often pass into rocks of this type, the difference being merely that the fragments are of purely local origin, and are unworn because they have not been transported. In caves breccias of limestone are produced by the collapse of part of the roof, covering the floor with broken masses. Coral reefs often contain extensive areas of limestone breccia, formed of detached pieces of rock which have been dislodged from the surface and have been carried down the steep external slopes of the reef. Volcanic breccias are very common near active or extinct craters, as sudden outbursts of steam bear fragments from the older rocks and scatter them over the ground.

BRECCIA, in petrology, refers to rocks made up of angular fragments set in a matrix. These fragments can come from volcanic rocks, limestones, siliceous cherts, sandstones, basically any type of material, and the matrix, which usually resembles the fragments it surrounds, can be siliceous, calcareous, argillaceous, etc. The key feature of this group is the sharp-edged, unweathered shapes of the fragments; in conglomerates, the pebbles are rounded and water-worn since they have been transported by waves and currents from a distance. There are various ways breccias can form. Some develop through regular processes of atmospheric erosion; frost, rain, and gravity break apart exposed rock surfaces and detach pieces of various sizes, forming screes at the bottoms of cliffs and covering barren mountain tops with shattered debris. If these accumulations harden into solid rock through pressure and other cementing processes, they create typical breccias. Conglomerates can transition into this type of rock, differing mainly in that the fragments are locally sourced and unweathered due to not being transported. In caves, limestone breccias are created when part of the roof collapses, depositing broken masses on the floor. Coral reefs often have large sections of limestone breccia, formed from chunks of rock that have been dislodged from the surface and carried down the steep outer slopes of the reef. Volcanic breccias are frequently found near active or dormant craters, as sudden bursts of steam can eject fragments from older rocks and spread them across the ground.

Another group of breccias is due to crushing; these are produced in fissures, faults and veins, below the surface, and maybe described as “crush-breccias” and “friction-breccias.” Very important and well-known examples of this class occur as veinstones, which may be metalliferous or not. A fissure is formed, probably by slight crustal movements, and is subsequently filled with material deposited from solution (quartz, calcite, barytes, &c.). Very often displacement of the walls again takes place, and the infilling or “veinstone” is torn apart and brecciated. It may then be cemented together by a further introduction of mineral matter, which may be the same as that first deposited or quite different. In important veins this process is often repeated several times: detached pieces of the country rock are mingled with the shattered veinstone, and generally experience alteration by the percolating mineral solutions. Other crush-breccias occurring on a much larger scale are due to the folding of strata which have unequal plasticities. If, for example, shales and sandstones are bent into a series of arches, the sandstones being harder and more resistant will tend to crack, while the shales, which are soft and flow under great pressures, are injected into the crevices and separate the broken pieces from one another. Continued movement will give the brecciated fragments of sandstone a rounded form by rubbing them against one another, and, in this way, a crush-conglomerate is produced. Great masses of limestone in the Alps, Scottish Highlands, and all regions of intense folding are thus converted into breccias. Cherts frequently also show this structure; igneous rocks less commonly do so; but it is perhaps most common where there have been thin bedded alternations of rocks of different character, such as limestone and dolerite, limestone and quartzite, shale or phyllite and sandstone. Fault-breccias closely resemble vein-breccias, except that usually their fragments consist principally of the rocks which adjoin the fault and not of mineral deposits introduced in solution; but many veins occupy faults, and hence no hard and fast line can be drawn between these types of breccia.

Another group of breccias is formed by crushing; these occur in cracks, faults, and veins below the surface and can be described as “crush-breccias” and “friction-breccias.” Important and well-known examples of this type are found as veinstones, which may contain metals or not. A fissure is created, likely due to minor movements in the crust, and is later filled with material deposited from solution (like quartz, calcite, barytes, etc.). Often, the walls of the fissure shift again, causing the infilling or “veinstone” to break apart and become brecciated. It can then be cemented back together by additional mineral matter, which might be the same as what was first deposited or completely different. In major veins, this process is often repeated multiple times: broken pieces of the surrounding rock mix with the shattered veinstone, which generally undergoes changes from the mineral solutions that seep through. Larger-scale crush-breccias result from the folding of layers with varying plasticities. For instance, when shales and sandstones are bent into a series of arches, the harder and more resistant sandstones will crack, while the softer shales will flow under high pressure, filling the cracks and separating the broken pieces. Continued movement will round the brecciated sandstone fragments by rubbing against one another, resulting in a crush-conglomerate. Large masses of limestone in the Alps, Scottish Highlands, and other areas of significant folding are transformed into breccias in this way. Cherts frequently show this structure; igneous rocks do so less commonly. However, it’s most common where there are thin layers of rocks of different types, such as limestone and dolerite, limestone and quartzite, or shale or phyllite and sandstone. Fault-breccias are very similar to vein-breccias, except that their fragments usually consist mainly of the rocks next to the fault rather than mineral deposits that were dissolved. Many veins do occupy faults, so there’s no strict line separating these types of breccia.

A third group of breccias is due to movement in a partly consolidated igneous rock, and may be called “fluxion-breccias.” Lava streams, especially when they consist of rhyolite, dacite and some kinds of andesite, may rapidly solidify, and then become exceedingly brittle. If any part of the mass is still liquid, it may break up the solid crust by pressure from within and the angular fragments are enveloped by the fluid lava. When the whole comes to rest and cools, it forms a typical “volcanic-fluxion-breccia.” The same phenomena are sometimes exemplified in intrusive sills and sheets. The fissures which are occupied by igneous dikes may be the seat of repeated injections following one another at longer or shorter intervals; and the latter may shatter the earlier dike rocks, catching up the fragments. Among the older formations, especially when decomposition has gone on extensively, these fluxion and injection-breccias are often very hard to distinguish from the commoner volcanic-breccias and ash-beds, which have been produced by weathering, or by the explosive power of superheated steam.

A third group of breccias comes from movement in partially solidified igneous rock and can be called “fluxion-breccias.” Lava flows, especially those made of rhyolite, dacite, and some types of andesite, can solidify quickly and then become extremely brittle. If any part of the mass is still liquid, it may break apart the solid crust due to internal pressure, and the angular fragments get surrounded by the flowing lava. When everything settles and cools, it forms a typical “volcanic-fluxion-breccia.” The same phenomena can sometimes be seen in intrusive sills and sheets. The cracks occupied by igneous dikes may experience repeated injections occurring one after another at varying intervals; the later injections can shatter the earlier dike rocks, incorporating the fragments. Among older formations, especially where decomposition has happened extensively, these fluxion and injection-breccias are often very hard to tell apart from more common volcanic-breccias and ash-beds, which are created by weathering or the explosive power of superheated steam.

(J. S. F.)

BRECHIN, a royal, municipal and police burgh of Forfarshire, Scotland. Pop. (1901) 8941. It lies on the left bank of the South Esk, 7¾ m. west of Montrose, and has a station on the loop line of the Caledonian railway from Forfar to Bridge of Dun. Brechin is a prosperous town, of great antiquity, having been the site of a Culdee abbey. The Danes are said to have burned the town in 1012. David I. erected it into a bishopric in 1150, and it is still a see of the Episcopal Church of Scotland. In 1452 the earl of Huntly crushed the insurrection led by the earl of Crawford at the battle of Brechin Muir, and in 1645 the town and castle were harried by the marquis of Montrose. James VI. gave a grant for founding a hospital in the burgh, which yet supplies the council with funds for charity. No trace remains of the old walls and gates of the town, but the river is crossed by a two-arched stone bridge of very early date. The cathedral church of the Holy Trinity belongs to the 13th century. It is in the Pointed style, but suffered maltreatment in 1806 at the hands of restorers, whose work, however, disappeared during the restoration completed in 1902. The western gable with its flamboyant window and Gothic door and the massive square tower are all that is left of the original edifice. The modern stained glass in the chancel is reckoned amongst the finest in Scotland. Immediately adjoining the cathedral to the south-west stands the Round Tower, built about 1000. It is 86¾ ft. high, has at the base a circumference of 50 ft. and a diameter of 16 ft., and is capped with a hexagonal spire of 18 ft., which was added in the 15th century. This type of structure is somewhat common in Ireland, but the only Scottish examples are those at Brechin, Abernethy in Perthshire, and Egilshay in the Orkneys. Brechin Castle played a prominent part in the Scottish War of Independence. In 1303 it withstood for twenty days a siege in 483 force by the English under Edward I., surrendering only when its governor, Sir Thomas Maule, had been slain. From the Maule family it descended to the Dalhousies. Its library contains many important MSS., among them Burns’s correspondence with George Thomson, and several cartularies including those of St Andrews and Brechin. In the Vennel (alley or small street) some ruins remain of the maison dieu, or hospitium, founded in 1256 by William of Brechin. Besides these historical buildings the principal public structures include Smith’s school, the municipal buildings, the free library, the episcopal library (founded by Bishop Forbes, who, as well as Bishop Abernethy-Drummond, presented a large number of volumes). The principal industries include manufactures of linen and sailcloth, bleaching, rope-making, brewing, distilling, paper-making, in addition to nurseries and freestone quarries. Brechin—which is controlled by a provost, bailies and council—unites with Arbroath, Forfar, Inverbervie and Montrose to return one member to parliament.

BRECHIN, is a royal, municipal, and police burgh located in Forfarshire, Scotland. Population (1901) 8941. It sits on the left bank of the South Esk, 7¾ miles west of Montrose, and has a station on the loop line of the Caledonian railway from Forfar to Bridge of Dun. Brechin is a thriving town with a long history, having once been the site of a Culdee abbey. The Danes are believed to have burned the town in 1012. David I established it as a bishopric in 1150, and it remains a see of the Episcopal Church of Scotland. In 1452, the Earl of Huntly defeated the insurrection led by the Earl of Crawford at the battle of Brechin Muir, and in 1645, the town and castle were attacked by the Marquis of Montrose. James VI granted funds for the founding of a hospital in the burgh, which still provides the council with charitable funds. No remnants of the old walls and gates of the town exist today, but the river is crossed by a two-arched stone bridge of very early date. The cathedral church of the Holy Trinity dates back to the 13th century. It is designed in the Pointed style but was damaged in 1806 by restorers, though their work vanished during the restoration finished in 1902. The western gable with its flamboyant window and Gothic door, and the massive square tower are the only parts that remain of the original structure. The modern stained glass in the chancel is considered among the finest in Scotland. Immediately next to the cathedral to the southwest stands the Round Tower, built around 1000. It is 86¾ feet tall, has a base circumference of 50 feet, and a diameter of 16 feet, capped with a hexagonal spire of 18 feet, which was added in the 15th century. This type of structure is somewhat common in Ireland, but the only examples in Scotland are those at Brechin, Abernethy in Perthshire, and Egilshay in the Orkneys. Brechin Castle played a significant role in the Scottish War of Independence. In 1303, it endured a siege lasting twenty days by the English under Edward I, surrendering only after the governor, Sir Thomas Maule, was killed. From the Maule family, it passed to the Dalhousies. Its library houses many important manuscripts, including Burns’s correspondence with George Thomson, and several cartularies including those of St Andrews and Brechin. In the Vennel (alley or small street), some ruins of the maison dieu, or hospitium, founded in 1256 by William of Brechin still remain. Besides these historical buildings, the main public structures include Smith’s school, the municipal buildings, the free library, and the episcopal library (founded by Bishop Forbes, who, along with Bishop Abernethy-Drummond, donated a large number of volumes). The primary industries include the manufacture of linen and sailcloth, bleaching, rope-making, brewing, distilling, paper-making, in addition to nurseries and freestone quarries. Brechin—which is governed by a provost, bailies, and council—joins with Arbroath, Forfar, Inverbervie, and Montrose to elect one member to parliament.

Edzell (pronounced Edyell, and, locally, Aigle) lies about 6 m. north of Brechin, with which it is connected by rail. It is situated on the North Esk and near the West Water, which falls into the Esk 2 m. south-west. Edzell is on the threshold of romantic Highland scenery. The picturesque ruins of Edzell Castle lie a mile to the west of the town. Once the seat of the Lindsays the estate now belongs to the earl of Dalhousie. The church of the parish of Farnell, 3½ m. south-east of Brechin, was erected in 1806 after the model, so it is stated, of the famous Holy House (Casa Santa) of Loreto in Italy. It was here that the old sculptured stone giving a version of the Fall was found. Between Farnell and Brechin lies Kinnaird Castle, the seat of the earl of Southesk.

Edzell (pronounced Edyell, and locally, Aigle) is located about 6 miles north of Brechin, which it connects to by train. It's situated on the North Esk and near the West Water, which flows into the Esk 2 miles southwest. Edzell is right at the edge of stunning Highland scenery. The picturesque ruins of Edzell Castle are about a mile west of the town. Once the home of the Lindsays, the estate now belongs to the Earl of Dalhousie. The church of the parish of Farnell, located 3.5 miles southeast of Brechin, was built in 1806 and is said to be modeled after the famous Holy House (Casa Santa) of Loreto in Italy. Here, the old sculpted stone depicting a version of the Fall was discovered. Between Farnell and Brechin stands Kinnaird Castle, the residence of the Earl of Southesk.


BRECKINRIDGE, JOHN CABELL (1821-1875), American soldier and political leader, was born near Lexington, Kentucky, on the 21st of January 1821. He was a member of a family prominent in the public life of Kentucky and the nation. His grandfather, John Breckinridge (1760-1806), who revised Jefferson’s draft of the “Kentucky Resolutions” of 1798, was a United States senator from Kentucky in 1801-1805 and attorney-general in President Jefferson’s cabinet in 1805-1806. His uncles, John Breckinridge (1797-1841), professor of pastoral theology in the Princeton Theological Seminary in 1836-1838 and for many years after secretary of the Presbyterian Board of Foreign Missions, and Robert Jefferson Breckinridge (1800-1871), for several years superintendent of public instruction in Kentucky, an important factor in the organization of the public school system of the state, a professor from 1853 to 1871 in the Danville Presbyterian Theological Seminary at Danville, Kentucky, and the temporary chairman of the national Republican convention of 1864, were both prominent clergymen of the Presbyterian Church. His cousin, William Campbell Preston Breckinridge (1837-1904), was a Democratic representative in Congress from 1885 to 1893. Another cousin, Joseph Cabell Breckinridge (1842-   ), served on the Union side in the Civil War, was a major-general of volunteers during the Spanish-American War (1898), became a major-general in the regular United States army in 1903, and was inspector-general of the United States army from 1899 until his retirement from active service in 1904.

BRECKINRIDGE, JOHN CABELL (1821-1875), American soldier and political leader, was born near Lexington, Kentucky, on January 21, 1821. He came from a family well-known in Kentucky and national public life. His grandfather, John Breckinridge (1760-1806), who revised Jefferson’s draft of the “Kentucky Resolutions” of 1798, served as a United States senator from Kentucky from 1801 to 1805 and was the attorney general in President Jefferson’s cabinet from 1805 to 1806. His uncles included John Breckinridge (1797-1841), who was a professor of pastoral theology at Princeton Theological Seminary from 1836 to 1838 and later served for many years as secretary of the Presbyterian Board of Foreign Missions, and Robert Jefferson Breckinridge (1800-1871), who was the superintendent of public instruction in Kentucky for several years, played a key role in organizing the state's public school system, was a professor at the Danville Presbyterian Theological Seminary in Kentucky from 1853 to 1871, and served as the temporary chairman of the national Republican convention in 1864. His cousin, William Campbell Preston Breckinridge (1837-1904), was a Democratic representative in Congress from 1885 to 1893. Another cousin, Joseph Cabell Breckinridge (1842-  ), fought for the Union during the Civil War, was a major general of volunteers during the Spanish-American War (1898), became a major general in the regular United States Army in 1903, and served as inspector general of the United States Army from 1899 until he retired in 1904.

John Cabell Breckinridge graduated in 1838 at Centre College, Danville, Kentucky, continued his studies at Princeton, and then studied law at Transylvania University, Lexington, Kentucky. He practised law in Frankfort, Kentucky, in 1840-1841 and in Burlington, Iowa, from 1841 to 1843, and then returned to Kentucky and followed his profession at Lexington. In 1847 he went to Mexico as major in a volunteer regiment, but arrived too late for service in the field. In 1849 he was elected a Democratic member of the Kentucky legislature, and in 1851-1855 he served in the national House of Representatives. President Pierce offered him the position of minister to Spain, but he declined it. In 1856 he was chosen vice-president of the United States on the Buchanan ticket, and although a strong pro-slavery and states rights man, he presided over the Senate with conspicuous fairness and impartiality during the trying years before the Civil War. In 1860 he was nominated for the presidency by the pro-slavery seceders from the Democratic national convention, and received a total of 72 electoral votes, including those of every Southern state except Virginia, Kentucky, Tennessee and Missouri. As vice-president and presiding officer of the Senate, it was his duty to make the official announcement of the election of his opponent, Lincoln. He succeeded John J. Crittenden as United States senator from Kentucky in March 1861, but having subsequently entered the Confederate service he was expelled from the Senate in December 1861. As brigadier-general he commanded the Confederate reserve at Shiloh, and in August 1862 he became major-general. On the 5th of this month he was repulsed in his attack on Baton Rouge, but he won distinction at Stone River (December 31, 1862-January 2, 1863), where his division lost nearly a third of its number. He took part in the battle of Chickamauga, defeated General Franz Sigel at Newmarket, Virginia, on the 15th of May 1864, and then, joined Lee and took part in the battles of Cold Harbor on the 1st and on the 3rd of June. In the autumn he operated in the Shenandoah Valley, and with Early was defeated by Sheridan at Winchester on the 19th of September. Being transferred to the department of South-west Virginia, he fought a number of minor engagements in eastern Tennessee, and in January 1865 became secretary of war for the Confederate States. At the close of the war he escaped to Cuba, and from there went to Europe. In 1868 he returned to the United States and resumed the practice of law at Lexington, Kentucky, where he died on the 17th of May 1875.

John Cabell Breckinridge graduated in 1838 from Centre College in Danville, Kentucky, continued his studies at Princeton, and then studied law at Transylvania University in Lexington, Kentucky. He practiced law in Frankfort, Kentucky, from 1840 to 1841 and in Burlington, Iowa, from 1841 to 1843, then returned to Kentucky to continue his career in Lexington. In 1847, he went to Mexico as a major in a volunteer regiment but arrived too late for active service. In 1849, he was elected as a Democratic member of the Kentucky legislature, and from 1851 to 1855, he served in the national House of Representatives. President Pierce offered him the position of minister to Spain, but he turned it down. In 1856, he was selected as vice president of the United States on the Buchanan ticket, and despite being a strong supporter of slavery and states’ rights, he presided over the Senate with notable fairness and impartiality during the challenging years leading up to the Civil War. In 1860, he was nominated for president by the pro-slavery breakaway from the Democratic national convention and received a total of 72 electoral votes, including every Southern state except Virginia, Kentucky, Tennessee, and Missouri. As vice president and presiding officer of the Senate, it was his responsibility to officially announce the election of his opponent, Lincoln. He succeeded John J. Crittenden as a United States senator from Kentucky in March 1861, but after joining the Confederate service, he was expelled from the Senate in December 1861. As a brigadier general, he commanded the Confederate reserve at Shiloh, and in August 1862, he was promoted to major general. On the 5th of that month, he was repelled in his attack on Baton Rouge, but he gained recognition at Stone River (December 31, 1862 - January 2, 1863), where his division suffered nearly a third of its losses. He participated in the battle of Chickamauga, defeated General Franz Sigel at Newmarket, Virginia, on May 15, 1864, and then joined Lee to take part in the battles of Cold Harbor on June 1 and June 3. In the autumn, he operated in the Shenandoah Valley and was defeated by Sheridan at Winchester on September 19 with Early. After being reassigned to the department of Southwestern Virginia, he engaged in several minor battles in eastern Tennessee, and in January 1865, he became Secretary of War for the Confederate States. At the end of the war, he escaped to Cuba and then traveled to Europe. In 1868, he returned to the United States and resumed his law practice in Lexington, Kentucky, where he died on May 17, 1875.


BRECON, or Brecknock, a market town and municipal borough, the capital of Breconshire, Wales, 183 m. from London by rail, picturesquely situated nearly in the centre of the county, at the confluence of the Honddu with the Usk. Half a mile higher up the Tarell also falls into the Usk from the south. The ecclesiastical parish of Brecon consists of the two civil parishes of St John the Evangelist and St Mary, both on the left bank of the Usk, while St David’s in Llanfaes is on the other side of the river, and was wholly outside the town walls. Pop. (1901) 5875. There is only one line of railway, over which several companies, however, have running powers, so that the town may be reached by the Brecon & Merthyr railway from Merthyr, Cardiff and Newport, by the Cambrian from Builth Wells, or by the Midland from Hereford and Swansea respectively. The Great Western railway has also a service of road motors between Abergavenny and Brecon. A canal running past Abergavenny connects Brecon with Merthyr.

BRECON, or Brecknock, is a market town and municipal borough, the capital of Breconshire, Wales, located 183 miles from London by rail. It's beautifully situated almost in the center of the county, at the point where the Honddu meets the Usk. Half a mile upstream, the Tarell also flows into the Usk from the south. The ecclesiastical parish of Brecon includes the two civil parishes of St John the Evangelist and St Mary, both on the left bank of the Usk, while St David’s in Llanfaes is on the opposite side of the river and is completely outside the town walls. Population (1901) was 5,875. There is only one railway line, but several companies have rights to operate on it, so the town can be accessed via the Brecon & Merthyr railway from Merthyr, Cardiff, and Newport, by the Cambrian railway from Builth Wells, or by the Midland railway from Hereford and Swansea. The Great Western railway also provides a bus service between Abergavenny and Brecon. Additionally, a canal that runs past Abergavenny links Brecon with Merthyr.

The Priory church of St John, a massive cruciform building, originally Norman with Early English and Decorated additions, is the finest parish church in Wales, and even taking into account the cathedrals it is according to E.A. Freeman “indisputably the third church not in a state of ruin in the principality,” its choir furnishing “one of the choicest examples of the Early English style.” Previous to the dissolution, a rood-screen bearing a gigantic rood, the object of many pilgrimages, stood to the west of the tower. The church was restored under Sir Gilbert Scott between 1861 and 1875. St Mary’s, in the centre of the town, and St David’s, beyond the Usk, are now mainly modern, though the former has some of the Norman arches of the original church. There is also a Roman Catholic church (St Michael’s) opened in 1851, and chapels belonging to the Baptists, Calvinistic and Wesleyan Methodists, and to the Congregationalists. In Llanfaes there was formerly a Dominican priory, but in 1542 Henry VIII. granted it with all its possessions to a collegiate church, which was transferred thither from Abergwili, and was given the name of Christ College. Many of the bishops of St David’s during the 17th century occasionally resided here, and several are also buried here. A small part of the revenues went to the maintenance of a grammar-school, but in 1841 the collegiate body was dissolved, and its revenues, then amounting to about £8000 a year, were transferred to the ecclesiastical commissioners. In 1853 Henry VIII.’s charter was repealed, and under a chancery scheme adopted two years later, £1200 a year was appropriated for the school. New school 484 buildings were erected at a cost of about £10,000 in 1862, and these were enlarged at a cost of about £5000 in 1880. The chancel of the old Dominican chapel, dating from the 13th century, was restored in 1864, and is now the school chapel. There is also a Congregationalist theological college, built in 1869 at a cost of £12,000, and now affiliated with the university of Wales. The other chief buildings of the town are the shire hall built in 1842 in the Doric style from designs by T.H. Wyatt; the Guildhall; the barracks, which are the headquarters of two battalions of the South Wales Borderers; the county infirmary founded in 1832; and the prison (in Llanfaes) for the counties of Brecon and Radnor. There is a bronze statue of the duke of Wellington (erected in 1854) by John Evan Thomas, a native of the town. The town commands a magnificent view of the Brecknock Beacons, and is noted for its promenades on the banks of the Usk, and in the priory groves. Brecon is favourably known as a fishing centre, and there is also boating on the Usk and the canal. There are several houses of interest, notably the Priory and Dr Awbrey’s residence (now called Buckingham House), both built about the middle of the 16th century, but the finest specimen is Newton (about a mile out, near Llanfaes) built in 1582 by Sir John Games (a descendant of Sir David Gam), but now a farmhouse. The “Shoulder of Mutton” Inn, now known as the “Siddons Wine Vaults,” was the birthplace in 1755 of Mrs Siddons.

The Priory church of St John, a large cruciform building, originally Norman with Early English and Decorated additions, is the best parish church in Wales. Even when considering the cathedrals, it is, according to E.A. Freeman, “indisputably the third church not in a state of ruin in the principality,” with its choir being “one of the choicest examples of the Early English style.” Before the dissolution, a rood-screen featuring a gigantic rood, which attracted many pilgrims, stood to the west of the tower. The church was restored by Sir Gilbert Scott between 1861 and 1875. St Mary’s, located in the center of town, and St David’s, beyond the Usk, are mostly modern now, although the former has some of the original Norman arches. There is also a Roman Catholic church (St Michael’s), opened in 1851, and chapels for the Baptists, Calvinistic and Wesleyan Methodists, and the Congregationalists. In Llanfaes, there used to be a Dominican priory, but in 1542, Henry VIII granted it along with all its possessions to a collegiate church transferred from Abergwili, named Christ College. Many bishops of St David’s from the 17th century occasionally lived here, and several are buried here. A small portion of the revenues supported a grammar school, but in 1841 the collegiate body was dissolved, and its revenues, then about £8000 a year, were transferred to the ecclesiastical commissioners. In 1853, Henry VIII’s charter was repealed, and under a chancery scheme adopted two years later, £1200 a year was allocated for the school. New school buildings were constructed for around £10,000 in 1862, and these were expanded at a cost of about £5000 in 1880. The chancel of the old Dominican chapel, dating back to the 13th century, was restored in 1864 and is now the school chapel. There is also a Congregationalist theological college that was built in 1869 for £12,000 and is now affiliated with the University of Wales. The town's other significant buildings include the shire hall, built in 1842 in the Doric style based on designs by T.H. Wyatt; the Guildhall; the barracks, which serve as the headquarters for two battalions of the South Wales Borderers; the county infirmary founded in 1832; and the prison (in Llanfaes) for the counties of Brecon and Radnor. A bronze statue of the Duke of Wellington (erected in 1854) by John Evan Thomas, a local native, stands in the town. The town offers stunning views of the Brecknock Beacons and is known for its promenades along the Usk and in the priory groves. Brecon is well-regarded as a fishing destination, and there are also boating opportunities on the Usk and the canal. Several interesting houses are located here, notably the Priory and Dr Awbrey’s residence (now called Buckingham House), both built around the mid-16th century, but the finest example is Newton (about a mile out, near Llanfaes), built in 1582 by Sir John Games (a descendant of Sir David Gam), now a farmhouse. The “Shoulder of Mutton” Inn, now known as the “Siddons Wine Vaults,” was the birthplace of Mrs. Siddons in 1755.

The name Brecknock is an anglicized form of Brycheiniog, the Welsh name of the territory of Brychan (whence the alternative form of Brecon), a Goidelic chieftain, who gained possession of the Usk valley in the 5th century. The Welsh name of the town, on the other hand, has always been Aber-Honddu (the estuary of the Honddu). There is no evidence of any settlement on the site of the present town prior to about 1092, when Bernard Newmarch, after defeating Bleddin ab Maenarch, built here a castle which he made his residence and the chief stronghold of his new lordship. For this purpose he utilized what remained of the materials of the Roman fort, 3 m. to the west, at Y Gaer, which some identify as Bannium. He subsequently founded, near the castle, the Benedictine priory of St John, which he endowed and constituted a cell of Battle Abbey. In time a town grew up outside the castle, and its inhabitants received a series of charters from the de Bohuns, into which family the castle and lordship passed, the earliest recorded charter being granted by Humphrey, 3rd earl of Hereford. Under the patronage of his great-grandson, the last earl of Hereford (who lived in great splendour at the castle), the town became one of the chief centres of trade in South Wales, and a sixteen days’ fair, which he granted, still survives as a hiring fair held in November. Further charters were granted by Henry IV. (who married Hereford’s co-heiress), by Henry V., who gave the town two more fairs, and by the Stafford family, to which the castle and lordship were allotted on the partition of the Bohun estates in 1421. Henry Stafford, 2nd duke of Buckingham, resided a good deal at the castle, and Morton, bishop of Ely, whose custody as a prisoner was entrusted to him, plotted with him there for the dethronement of Richard III., for which Stafford was executed in 1483. His son, Edward, the 3rd duke, who was born in the castle in 1478, had the estates restored to him, but, in 1521, suffered a like fate with his father, and the lordship and castle then vested in the crown. Both were acquired in the next century by the ancestors of Viscount Tredegar, to whom they now belong. By a statute of 1535 Brecon was made the county town of the new shire of Brecknock, and was granted the right of electing one burgess to represent it in parliament, a right which it retained till it was merged in the county representation in 1885. A chancery and exchequer for the counties of Brecknock and Radnor were also established at Brecon Castle, and from 1542 till 1830 the great sessions, and since then the assizes, and at all times the quarter sessions for the county, have been held at Brecon. The borough had also a separate court of quarter sessions till 1835. The town was incorporated by a charter granted by Philip and Mary in 1556 and confirmed by Elizabeth in the nineteenth year of her reign. A charter granted by James II. was never acted upon. The borough was placed under the Municipal Corporations Act 1835, and until then the town of Llywel, which is 10 m. off, formed a ward of the borough. There were formerly five trade gilds in the town, the chief industries being cloth and leather manufactures. There are five ancient fairs for stock, and formerly each of them was preceded by a leather fair. The fairs held in May and November were also for hiring, much of the hiring being now done at the Guildhall, and not in the streets as used to be the case.

The name Brecknock is an English version of Brycheiniog, which is the Welsh name for the area of Brychan, a Goidelic chieftain who took control of the Usk valley in the 5th century. The Welsh name for the town has always been Aber-Honddu (the mouth of the Honddu). There’s no record of any settlement on the site of the current town before around 1092, when Bernard Newmarch, after defeating Bleddin ab Maenarch, built a castle here that became his home and the main stronghold of his new lordship. He used materials leftover from the Roman fort located 3 miles to the west at Y Gaer, which some believe to be Bannium. He later founded the Benedictine priory of St John near the castle, which he endowed and made a cell of Battle Abbey. Over time, a town developed outside the castle, and its residents received multiple charters from the de Bohuns, the family that inherited the castle and lordship, the earliest recorded charter being granted by Humphrey, the 3rd Earl of Hereford. Under the patronage of his great-grandson, the last Earl of Hereford (who lived lavishly in the castle), the town became one of the main trading centers in South Wales, and a sixteen-day fair that he established is still held as a hiring fair in November. Further charters were issued by Henry IV (who married the co-heiress of Hereford), by Henry V, who granted the town two more fairs, and by the Stafford family, who received the castle and lordship when the Bohun estates were divided in 1421. Henry Stafford, the 2nd Duke of Buckingham, spent considerable time in the castle, and Morton, the Bishop of Ely, who was held as a prisoner, conspired with him there to dethrone Richard III, which led to Stafford’s execution in 1483. His son, Edward, the 3rd Duke, was born in the castle in 1478 and had his estates restored, but in 1521, he met a similar fate as his father, and the lordship and castle then passed to the crown. Both were acquired in the next century by the ancestors of Viscount Tredegar, to whom they now belong. By a statute from 1535, Brecon became the county town of the new shire of Brecknock and was granted the right to elect one representative to parliament, a right it kept until it merged with county representation in 1885. A chancery and exchequer for Brecknock and Radnor counties were also set up at Brecon Castle, and from 1542 until 1830, the great sessions, and subsequently the assizes, as well as the quarterly sessions for the county, have been held at Brecon. The borough also had its own separate court of quarter sessions until 1835. The town was incorporated by a charter granted by Philip and Mary in 1556 and confirmed by Elizabeth during her nineteenth year of reign. A charter granted by James II was never implemented. The borough was put under the Municipal Corporations Act in 1835, and until then, the town of Llywel, located 10 miles away, was part of the borough. There used to be five trade guilds in the town, with the main industries being cloth and leather manufacturing. There are five historic fairs for livestock, with each of them previously followed by a leather fair. The fairs held in May and November were also for hiring, although most hiring is now done at the Guildhall rather than in the streets as it used to be.

During the Civil War the greater part of the castle and of the town walls (which with their four gates were until then well preserved) were demolished by the inhabitants in order to prevent the town being either garrisoned or besieged. Charles I., however, stayed a night at the priory house shortly after the battle of Naseby. The chief ruins of the castle are now enclosed in the grounds of the Castle Hotel, the principal object being Ely tower, where Bishop Morton was imprisoned.

During the Civil War, most of the castle and the town walls (which had been well-preserved, along with their four gates, until then) were torn down by the locals to stop the town from being occupied or besieged. However, Charles I spent a night at the priory house shortly after the Battle of Naseby. The main ruins of the castle are now located within the grounds of the Castle Hotel, with Ely Tower being the main feature, where Bishop Morton was held prisoner.

Besides those already mentioned the persons of note born in the town include Henry Stafford, duke of Buckingham; Dr Hugh Price, founder of Jesus College, Oxford; Dr Thomas Coke, the first Wesleyan missionary bishop in America; and Theophilus Jones, the historian of the county. Henry Vaughan, the Silurist, at one time practised here as a doctor of medicine.

Besides those already mentioned, notable people born in the town include Henry Stafford, Duke of Buckingham; Dr. Hugh Price, founder of Jesus College, Oxford; Dr. Thomas Coke, the first Wesleyan missionary bishop in America; and Theophilus Jones, the county historian. Henry Vaughan, the Silurist, once practiced here as a medical doctor.

(D. Ll. T.)

BRECONSHIRE, or Brecknockshire, an inland county in South Wales, and the fourth largest in all Wales, bounded N.W. by Cardigan, N. and N.E. by Radnor, E. and S.E. by Monmouth, S. by Glamorgan and W. by Carmarthen. The general aspect of the county is mountainous, and the scenery is marked by beauty and grandeur. The climate is moist but temperate and healthy, and the soil of the valleys, often consisting of rich alluvial deposits, is very fertile. The loftiest mountains in South Wales, extending from Herefordshire and Monmouthshire (where their eastern spurs form the Hatteral Hills) in a south-easterly direction into Carmarthenshire, completely encircle the county on the east and south except for the break formed by the Vale of Usk at Crickhowell. Their highest summit north of the Usk, on the eastern side, where they are known as the Black Mountains, or sometimes the Black Forest Mountains, is Pen y Gader (2624 ft.) between Talgarth and Llanthony, and on the south-west the twin peaks of the Mynydd Du (“Black Mountain”) or the so-called Carmarthenshire Vans or Beacons, only the higher of which, Fan Brycheiniog (2632 ft.), is, however, in Breconshire; while the centre of the crescent is occupied by the masses of the Brecknockshire Beacons or Vans (often called the Beacons simply), the highest point of which, Pen y Fan, formerly also known as Cadair Arthur, or Arthur’s Chair, attains an altitude of 2910 ft. In the north, a range of barren hills, which goes by the general designation of Mynydd Eppynt (a name more properly limited to its central portion), stretches right across the county in a north-easterly direction, beginning with Mynydd Bwlch-y-Groes on the boundary to the east of Llandovery, and terminating near Builth. In the dreary country still farther north there is a series of rounded hills covered with peat and mosses, the chief feature being Drygarn Fawr (2115 ft.) on the confines of Cardiganshire.

BRECONSHIRE, or Brecknockshire is an inland county in South Wales and the fourth largest in the country. It's bordered to the northwest by Cardigan, to the north and northeast by Radnor, to the east and southeast by Monmouth, to the south by Glamorgan, and to the west by Carmarthen. The county is generally mountainous, featuring breathtaking and impressive scenery. The climate is moist yet temperate and healthy, and the valley soils, often rich in alluvial deposits, are quite fertile. The highest mountains in South Wales stretch from Herefordshire and Monmouthshire (where their eastern slopes create the Hatteral Hills) southeast into Carmarthenshire, almost entirely surrounding the county on the east and south, except for a gap created by the Vale of Usk at Crickhowell. The tallest peak north of the Usk, known as the Black Mountains or sometimes the Black Forest Mountains, is Pen y Gader (2624 ft.) located between Talgarth and Llanthony. To the southwest, the twin peaks of the Mynydd Du (“Black Mountain”) or the Carmarthenshire Vans or Beacons are found, with only the higher peak, Fan Brycheiniog (2632 ft.), situated in Breconshire; while the center of the crescent shape is filled with the Brecknockshire Beacons or Vans (often referred to simply as the Beacons), with the tallest point, Pen y Fan, previously known as Cadair Arthur or Arthur’s Chair, reaching an altitude of 2910 ft. In the north, a range of barren hills, generally called Mynydd Eppynt (a name more accurately referring to its central part), runs across the county in a northeast direction, starting from Mynydd Bwlch-y-Groes on the eastern boundary of Llandovery and ending near Builth. Further north, the landscape becomes dreary with a series of rounded hills covered in peat and mosses, the standout feature being Drygarn Fawr (2115 ft.) near the border with Cardiganshire.

Of the valleys, the most distinguished for beauty is that of the Usk, stretching from east to west and dividing the county into two nearly equal portions. The Wye is the chief river, and forms the boundary between the county and Radnorshire on the north and north-east, from Rhayader to Hay, a distance of upwards of 20 m.; its tributary, the Elan, till it receives the Claerwen, and then the latter river, continue the boundary between the two counties on the north, while the Towy separates the county from Cardigan on the north-west. The hilly country to the north of the Eppynt is mainly drained by the Irfon, which falls into the Wye near Builth. The Usk rises in the Carmarthenshire Van on the west, and flowing in a direction nearly due east through the centre of the county, collects the water from the range of the Beacons in the south, and from the Eppynt range in the north by means of numerous smaller streams, of which the Tarell and the Honddu (which join it at Brecon) are the most important, and it enters Monmouthshire near Abergavenny. 485 The Taff, the Nêdd (with its tributaries the Hepste and the Mellte) and the Tawe, all rise on the south of the Beacon range and passing through Glamorganshire, flow into the Bristol Channel, the upper reaches of the Nêdd and its tributaries in the Vale of Neath being deservedly famous for its scenery. The mountains of the county constitute one of the best water-producing areas in Wales. Recognizing this, the corporation of Birmingham, under an act of 1892, acquired the watershed of the Elan and Claerwen, and constructed on the Elan three impounding reservoirs whence the water is conducted through an aqueduct to Birmingham (q.v.). Swansea obtains its chief supply from a reservoir of one thousand million gallons constructed in 1898-1906 on the Cray, a tributary of the Usk. A large industrial area around Neath is supplied from Ystradfellte. Merthyr Tydfil draws its supply from the lesser Taff, while Cardiff’s main supply comes from the Great Taff valley, where, under acts of 1884 and 1894, two reservoirs with a capacity of 668 million gallons have been constructed and a third authorized.

Of the valleys, the most beautiful is the Usk Valley, which stretches from east to west, dividing the county almost evenly in two. The Wye is the main river and acts as the boundary between the county and Radnorshire to the north and northeast, running from Rhayader to Hay, a distance of over 20 miles. Its tributary, the Elan, continues the boundary until it joins the Claerwen, and then the Claerwen does the same on the northern border. The Towy separates the county from Cardigan to the northwest. The hilly area north of the Eppynt is mainly drained by the Irfon, which flows into the Wye near Builth. The Usk rises in the Van of Carmarthenshire in the west and flows almost directly east through the center of the county, collecting water from the Beacons range in the south and the Eppynt range in the north through numerous smaller streams, with the Tarell and the Honddu (which join it at Brecon) being the most significant. It enters Monmouthshire near Abergavenny. 485 The Taff, the Nêdd (along with its tributaries the Hepste and the Melte), and the Tawe all rise south of the Beacons range and flow through Glamorganshire into the Bristol Channel. The upper stretches of the Nêdd and its tributaries in the Vale of Neath are well-known for their scenic beauty. The mountains of the county are one of the best water-producing areas in Wales. Acknowledging this, Birmingham's city council acquired the Elan and Claerwen watersheds under an act of 1892, building three impounding reservoirs on the Elan, from which water is supplied through an aqueduct to Birmingham (q.v.). Swansea's main supply comes from a reservoir with a capacity of one billion gallons, constructed from 1898 to 1906 on the Cray, a tributary of the Usk. A large industrial area around Neath gets its supply from Ystradfellte. Merthyr Tydfil sources its water from the lesser Taff, while Cardiff’s main supply is from the Great Taff valley, where, under acts of 1884 and 1894, two reservoirs with a capacity of 668 million gallons have been built, and a third is authorized.

In the east of the county, at the foot of the Black Forest Mountains, is Llyn Safaddan, or Brecknock Mere, now more generally known as Llangorse Lake (from being partly situated in the parish of that name). It is about 3 m. long by 1 m. broad, being the largest lake in South Wales. Upon an artificial island in the lake traces of lake-dwellings were discovered in 1869, together with the bones of red deer, wild boar and Bos longifrons.

In the east of the county, at the base of the Black Forest Mountains, is Llyn Safaddan, or Brecknock Mere, now more commonly known as Llangorse Lake (because it partly lies in the parish of that name). It is about 3 miles long and 1 mile wide, making it the largest lake in South Wales. In 1869, traces of lake-dwellings were found on an artificial island in the lake, along with the bones of red deer, wild boar, and Bos longifrons.

Geology.—The oldest rocks in Brecknockshire are the Llandeilo shales and intrusive diabases of pre-Llandovery age which near Builth extend across the Wye from Radnorshire; another patch with volcanic outflows comes up at Llanwrtyd, and at both places they give rise to mineral springs. Next follow the Bala Beds, which, with the succeeding Lower and Upper Llandovery shales, sandstones and conglomerates, form the sparsely populated sheepwalks and valleys which occupy most of the north-western part of the county. These rocks are much folded and the shales are locally cleaved into slates, while the sandstones and conglomerates form scarps and ridges. To the south-east of this region a narrow outcrop of Upper Llandovery, Wenlock and Ludlow sandstones and mudstones follows, uncomformably overlying the Llandeilo and Bala rocks, and dipping conformably under the Old Red Sandstone; they extend from Newbridge-on-Wye and Builth through Llangammarch (where there are mineral springs) towards Llandovery, while a tongue of Ludlow rocks brought up by faulting extends from Erwood on the Wye for 8 m. south-westwards into the Old Red Sandstone. The remainder and greater part of the county is occupied chiefly by the gently inclined Old Red Sandstone; in the dissected plateau of the Black Mountains north of Crickhowell the lower marls and cornstones are laid open, while south of Brecon the conglomeratic upper beds form the escarpment and plateaus of the Beacons. The southern edge of the county is formed by the scarps and moorlands of the Carboniferous Limestone and Millstone Grit (both of which form also the outlier of Pen-ceryg-calch north of Crickhowell), while the lowest beds of the Coal Measures of the South Wales coalfield are reached in the Tawe and Neath valleys (where the beds are much folded) and near Tredegar and Brynmawr. Glacial deposits spread over the lower grounds and striae occur at great heights on the Black Mountains.

Geology.—The oldest rocks in Brecknockshire are the Llandeilo shales and intrusive diabases from before the Llandovery period, which near Builth stretch across the Wye River from Radnorshire. There’s also another section with volcanic outflows at Llanwrtyd, and at both locations, mineral springs emerge. Next are the Bala Beds, along with the following Lower and Upper Llandovery shales, sandstones, and conglomerates, which create the sparsely populated sheep pastures and valleys that make up most of the northwestern part of the county. These rocks are heavily folded, and the shales are locally split into slates, while the sandstones and conglomerates form cliffs and ridges. To the southeast of this area, a narrow band of Upper Llandovery, Wenlock, and Ludlow sandstones and mudstones lies unconformably above the Llandeilo and Bala rocks, dipping conformably beneath the Old Red Sandstone. These rocks extend from Newbridge-on-Wye and Builth through Llangammarch (where there are mineral springs) toward Llandovery, while a broken piece of Ludlow rocks pushed up by faulting extends southwest for 8 miles from Erwood on the Wye into the Old Red Sandstone. Most of the remaining area in the county is mainly covered by gently sloping Old Red Sandstone; in the dissected plateau of the Black Mountains north of Crickhowell, the lower marls and cornstones are exposed, while south of Brecon, the conglomeratic upper layers form the cliffs and plateaus of the Beacons. The southern border of the county consists of the cliffs and moorlands of the Carboniferous Limestone and Millstone Grit (which also includes the outlier of Pen-ceryg-calch north of Crickhowell), while the lowest layers of the Coal Measures of the South Wales coalfield are found in the Tawe and Neath valleys (where the layers are heavily folded) and near Tredegar and Brynmawr. Glacial deposits cover the lower areas, and striae appear at significant heights on the Black Mountains.

Industries.—Agriculture is the chief industry, and the Agricultural Society of the county, dating from 1755, is the oldest in Wales. About one-fourth only of the area of the county is under cultivation, and the chief crops grown are wheat and barley, but above all, turnips and oats. The acreage devoted to any other crop is practically infinitesimal, though in the eastern part more attention is paid to fruit-growing than perhaps in any other part of South Wales. The farming is, however, chiefly pastoral, nearly one-third of the county is common or waste land, and its number of sheep (mainly of the Radnor Forest breed) far exceeds that of any other county in Wales. The breeding of cobs and ponies comes next in importance, and thirdly that of cattle, now mostly Herefords, though Speed mentions a native breed, long since extinct, all white with red ears. These, together with pigs, wool, butter, and (in small quantities) cheese, form the staple of a considerable trade with the Midlands and the industrial districts to the south and southwest. The farms are of comparatively small size, the average cultivated area of the holdings in 1894 being 63 acres, and the hired labour averages about two men for each farm. A large share of the work, especially on the highland farms, is done by the occupiers and members of their own families, with the aid, where required, of an indoor servant or two. Few hands are employed in manufactures, but the mining industry is more important, coal being extensively worked—chiefly anthracite in the upper reaches of the Swansea and Neath valleys, and bituminous in the south-eastern corner of the county. There are also limestone and fireclay, firebrick and cement works, chiefly on the northern outcrop of the carboniferous limestone, as at Abernant in the Vale of Neath and at Penwyllt.

Industries.—Agriculture is the main industry, and the Agricultural Society of the county, established in 1755, is the oldest in Wales. Only about a quarter of the county's area is cultivated, with the primary crops being wheat and barley, but especially turnips and oats. The acreage for any other crops is virtually negligible, although fruit-growing is more prominent in the eastern part than in any other area of South Wales. Most farming is pastoral, with nearly a third of the county as common or waste land, and the number of sheep (mainly of the Radnor Forest breed) greatly surpasses that of any other county in Wales. The breeding of cobs and ponies is next in importance, followed by cattle, which are mostly Herefords, although Speed mentions a native breed that has long been extinct, entirely white with red ears. Along with pigs, wool, butter, and (in small amounts) cheese, these contribute to a significant trade with the Midlands and the industrial areas to the south and southwest. The farms are relatively small, with the average cultivated area in 1894 being 63 acres, and about two hired workers for each farm. A large portion of the work, especially on higher-altitude farms, is done by the owners and their family members, with the assistance of one or two indoor servants when necessary. Few people are employed in manufacturing, but the mining industry is more significant, with extensive coal operations—mainly anthracite in the upper reaches of the Swansea and Neath valleys, and bituminous in the southeastern part of the county. There are also limestone and fireclay, firebrick, and cement works, primarily on the northern outcrop of the carboniferous limestone, such as at Abernant in the Vale of Neath and at Penwyllt.

The Central Wales section of the London & North-Western railway from Craven Arms to Swansea crosses the north-west corner of the county, and is intersected at Builth Road by a branch of the Cambrian, which, running for the most part on the Radnorshire side of the Wye, follows that river from Rhayader to Three Cocks; the Midland railway from Hereford to Swansea runs through the centre of the county, effecting junctions at Three Cocks with the Cambrian, at Talyllyn with the Brecon & Merthyr railway (which connects the county with the industrial areas of East Glamorgan and West Monmouthshire), and at Capel Colbren with the Neath and Brecon line. The North-Western and Rhymney joint line skirts the south-eastern boundary of the county. Brecon is also connected with Newport by means of the Brecknock and Abergavenny Canal, which was completed in 1801 and is 35 m. in length. The Swansea Canal and that of the Vale of Neath have also their northern terminal within the county, at Ystradgynlais and Abernant respectively. The main roads of the county are probably the best in South Wales.

The Central Wales section of the London & North-Western railway from Craven Arms to Swansea crosses the northwest corner of the county and is intersected at Builth Road by a branch of the Cambrian, which primarily runs on the Radnorshire side of the Wye, following that river from Rhayader to Three Cocks. The Midland railway from Hereford to Swansea runs through the center of the county, connecting at Three Cocks with the Cambrian, at Talyllyn with the Brecon & Merthyr railway (linking the county to the industrial areas of East Glamorgan and West Monmouthshire), and at Capel Colbren with the Neath and Brecon line. The North-Western and Rhymney joint line runs along the southeastern boundary of the county. Brecon is also linked to Newport by the Brecknock and Abergavenny Canal, which was completed in 1801 and is 35 miles long. The Swansea Canal and the Vale of Neath Canal also have their northern terminals within the county, at Ystradgynlais and Abernant respectively. The main roads in the county are likely the best in South Wales.

Population and Administration.—The area of the ancient county is 475,224 acres, with a population in 1891 of 57,031 and in 1901 of 59,907. The area of the administrative county is 469,301 acres. The only municipal borough is Brecon, which is the county town, and had in 1901 a population of 5741. The other urban districts are Brynmawr, Builth Wells and Hay, with populations of 6833, of 1805 and of 1680 respectively in 1901. Crickhowell and Talgarth are market towns, while Llanwrtyd Wells is a rapidly developing health resort. The county forms part of the South Wales circuit, and the assizes are held at Brecon. It had one court of quarter sessions, and is divided into ten petty sessional divisions. The borough of Brecon has a separate commission of the peace, but no separate court of quarter sessions. There are 94 civil parishes, while the ecclesiastical parishes or districts wholly or in part within the county number 70, of which 67 are in the diocese of St David’s and the archdeaconry of Brecon, the remaining 3 being in the diocese of Llandaff. The county is not divided for parliamentary purposes, and returns one member to parliament. It contains a small part of the parliamentary borough of Merthyr Tydfil.

Population and Administration.—The area of the ancient county is 475,224 acres, with a population of 57,031 in 1891 and 59,907 in 1901. The area of the administrative county is 469,301 acres. The only municipal borough is Brecon, which is the county town, and had a population of 5,741 in 1901. The other urban districts are Brynmawr, Builth Wells, and Hay, with populations of 6,833, 1,805, and 1,680 respectively in 1901. Crickhowell and Talgarth are market towns, while Llanwrtyd Wells is a rapidly growing health resort. The county is part of the South Wales circuit, and the assizes are held in Brecon. It has one court of quarter sessions and is divided into ten petty sessional divisions. The borough of Brecon has a separate commission of the peace but no separate court of quarter sessions. There are 94 civil parishes, while the ecclesiastical parishes or districts that are wholly or partly within the county number 70, with 67 in the diocese of St David’s and the archdeaconry of Brecon, and the remaining three in the diocese of Llandaff. The county is not divided for parliamentary purposes and elects one member to parliament. It contains a small part of the parliamentary borough of Merthyr Tydfil.

In the eastern parts and along the Wye valley, English has become the predominant language, but in the rest of the county, especially north of the Eppynt range, Welsh occupies that position. In 1901 about 51% of the population above three years could speak both English and Welsh, 38% could speak English only and 11% Welsh only. The majority of the population is Nonconformist in religion, the chief denominations being the Baptists, Calvinistic Methodists and Congregationalists. Besides an endowed grammar-school (Christ College) at Brecon, there are in the county four secondary schools, established under the Welsh Intermediate Education Act 1899, viz. separate schools for boys and girls at Brecon, and dual schools at Builth and Brynmawr. Most of the county institutions are in the town of Brecon, but the joint asylum for the counties of Brecon and Radnor is at Talgarth. It was opened in February 1903. At Trevecca, near the same town, was a theological college for ministerial students attached to the Calvinistic Methodist body, but in October 1906 the institution was removed to Aberystwyth, and the buildings have since been utilized for a preparatory school belonging to the same body.

In the eastern parts and along the Wye Valley, English has become the main language, but in the rest of the county, especially north of the Eppynt range, Welsh is dominant. In 1901, about 51% of the population over three years old could speak both English and Welsh, 38% could speak only English, and 11% could speak only Welsh. The majority of the population is Nonconformist in religion, with the main denominations being Baptists, Calvinistic Methodists, and Congregationalists. Besides an endowed grammar school (Christ College) in Brecon, there are four secondary schools in the county, established under the Welsh Intermediate Education Act 1899, specifically separate schools for boys and girls in Brecon, and dual schools in Builth and Brynmawr. Most of the county institutions are in Brecon, but the joint asylum for the counties of Brecon and Radnor is in Talgarth. It opened in February 1903. In Trevecca, near the same town, there was a theological college for ministerial students associated with the Calvinistic Methodist body, but in October 1906, the institution moved to Aberystwyth, and the buildings have since been used for a preparatory school belonging to the same body.

History.—There are no traces or record of Breconshire being inhabited before the Neolithic period, but to that period may be ascribed a number of cairns, menhirs and one cromlech (near Glanusk). In Roman times the eastern half of the county formed part of the territory of the Silures, a pre-Celtic race, whose governing class at that time probably consisted of Brythonic 486 Celts. But an earlier wave of Celtic invasion represented by the Goidels had passed westwards along the valleys of the Usk and Wye, leaving traces in place-names (e.g. llwch, lake), and in the Ogham inscribed stones found at Glanusk, Trallwng and Trecastle, and probably surviving into historic times around the Beacon range and farther south even to Gower and Kidwelly. The conquest of the district by the Romans was effected between about A.D. 75 and 80, and they established a frontier fort (which some have called Caer Bannau, identifying it as Bannium) some 3 m. out of the present town of Brecon, with smaller stations on roads leading thereto at Y Gaer near Crickhowell, and at Capel Colbren in the direction of Neath. On the departure of the Romans, the Goidelic hill-tribes, probably with help from Gower and Ireland, seem to have regained possession of the Usk valley under the leadership of a chieftain of their own race, Brychan, who became the ancestor of one of the three chief tribes of hereditary Welsh saints. His territory (named after him Brycheiniog, whence Brecknock) lay wholly east of the Eppynt range, for the lordship of Buallt, corresponding to the modern hundred of Builth, to the west, remained independent, probably till the Norman invasion. Most of the older churches of central Brecknockshire and east Carmarthenshire were founded by or dedicated to members of Brychan’s family.

History.—There are no traces or records of Breconshire being inhabited before the Neolithic period, but several cairns, menhirs, and one cromlech (near Glanusk) can be traced back to that time. During Roman times, the eastern half of the county was part of the territory of the Silures, a pre-Celtic race, whose ruling class at that time likely consisted of Brythonic Celts. An earlier wave of Celtic invasion, represented by the Goidels, had moved westward along the valleys of the Usk and Wye, leaving signs in place-names (e.g. llwch, lake) and in the Ogham-inscribed stones found at Glanusk, Trallwng, and Trecastle, likely persisting into historic times around the Beacon range and further south to Gower and Kidwelly. The Romans conquered the area between about A.D. 75 and 80, establishing a frontier fort (often referred to as Caer Bannau, identified as Bannium) about 3 miles from present-day Brecon, along with smaller forts on the roads leading to it at Y Gaer near Crickhowell and Capel Colbren towards Neath. After the Romans left, the Goidelic hill tribes, possibly with support from Gower and Ireland, appear to have reclaimed the Usk valley under the leadership of their own chieftain, Brychan, who became the ancestor of one of the three major tribes of hereditary Welsh saints. His territory (named after him, Brycheiniog, from which Brecknock derives) was entirely east of the Eppynt range, as the lordship of Buallt, corresponding to the modern hundred of Builth to the west, remained independent, likely until the Norman invasion. Most of the older churches in central Brecknockshire and east Carmarthenshire were founded by or dedicated to members of Brychan’s family.

From the middle of the 8th century to the 10th, Brycheiniog proper often bore the brunt of Mercian attacks, and many of the castles on its eastern border had their origin in that period. Subsequently, when Bernard de Newmarch and his Norman followers obtained possession of the country in the last quarter of the 11th century, these were converted into regular fortresses. Bernard himself initiated this policy by building a castle at Talgarth on the Upper Wye, but in 1091 he moved southwards, defeated the regulus of Brycheiniog, Bleddyn ab Maenarch, and his brother-in-law Rhys ap Tewdwr, the prince of south-west Wales, and with materials obtained from the Roman fort of Caer Bannau, built a castle at Brecon, which he made his caput baroniae. Brycheiniog was then converted into a lordship marcher and passed to the Fitzwalter, de Breos, the Bohun and the Stafford families in succession, remaining unaffected by the Statute of Rhuddlan (1282), as it formed part of the marches, and not of the principality of Wales.

From the mid-8th century to the 10th century, Brycheiniog often faced attacks from Mercia, and many of the castles along its eastern border were built during this time. Later, when Bernard de Newmarch and his Norman followers took control of the area in the last part of the 11th century, these structures were turned into fortified castles. Bernard started this effort by constructing a castle at Talgarth on the Upper Wye, but in 1091 he moved south, defeated the ruler of Brycheiniog, Bleddyn ab Maenarch, and his brother-in-law Rhys ap Tewdwr, who was the prince of south-west Wales. Using materials from the Roman fort at Caer Bannau, he built a castle at Brecon, which he established as his caput baroniae. Brycheiniog was then changed into a lordship marcher and passed through the Fitzwalter, de Breos, Bohun, and Stafford families in succession, remaining unaffected by the Statute of Rhuddlan (1282), as it was part of the marches and not the principality of Wales.

The Irfon valley, near Builth, was, however, the scene of the last struggle between the English and Llewelyn, who in 1282 fell in a petty skirmish in that district. The old spirit of independence flickered once again when Owen Glendower marched to Brecon in 1403. Upon the attainder of Edward, duke of Buckingham, in 1521, the lordship of Brecon with its dependencies became vested in the crown. In 1536 it was grouped with a whole series of petty lordships marcher and the lordship of Builth to form the county of Brecknock with Brecon as the county town, and the place for holding the county court. The county returns one member to parliament, and has done so since 1536; the borough of Brecon, with the town of Llywel, had also a separate representative from the same date till 1885, when it became merged in the county.

The Irfon Valley, near Builth, was the site of the final conflict between the English and Llewelyn, who died in a minor skirmish in that area in 1282. The old spirit of independence reemerged when Owen Glendower marched to Brecon in 1403. After Edward, Duke of Buckingham, was stripped of his titles in 1521, the lordship of Brecon and its territories became part of the crown's holdings. In 1536, it was combined with several minor lordships and the lordship of Builth to create the county of Brecknock, with Brecon as the county town and the location for the county court. The county has elected one member to Parliament since 1536; the borough of Brecon, along with the town of Llywel, also had its own representative from that time until 1885, when it merged into the county.


BREDA, a fortified town in the province of North Brabant, Holland, at the confluence of the canalized rivers Merk and Aa, 15 m. by rail E.N.E. of Roozendaal. Pop. (1900) 26,296. It is connected by steam tramway with Antwerp (30 m. S.S.W.), and with Geertruidenberg in the north, and the island of Duiveland on the west. The fortress of Breda, which was once considered impregnable, has been dismantled, but the town is still protected by extensive lines of fortification and lies in the midst of a district which can be readily laid under water. It has a fine quay, town-hall and park. There are several Roman Catholic and Protestant churches. The principal Protestant church is a Gothic building dating from the end of the 13th century, with a fine tower, and a choir of later date (1410). Among the many interesting monuments is the imposing tomb of the stadtholder Count Engelbert II. of Nassau and his wife. This is the work of Tomasino Vincenz of Bologna, who, though a pupil of Raphael in painting, in sculpture followed Michelangelo, to whom the work is sometimes ascribed. Since 1828 Breda has been the seat of a royal military academy for all arms of the service. It also possesses a Latin school, an arsenal, and a modern prison built on the isolated-cell principle. The prison is in the form of a rotunda, 58 yds. in diameter, and covered by a high dome. In the middle is the office of the administration, and on the top of this a small watch-tower. Round the walls of the rotunda are the cells, 208 in number, and arranged in four tiers with balconies reached by iron staircases. Each cell measures 35 cub. yds., is provided with an electric bell communicating with the warder in the tower, heated by hot-air pipes, and lighted by day through a window on the outer wall of the rotunda, and from sunset till ten o’clock by electric light. The industries of Breda comprise the manufacture of linen and woollen goods, carpets, hats, beer and musical instruments. In the neighbourhood of the town are the villages of Ginneken and Prinsenhage, situated in the midst of pretty pine woods. They form favourite places of excursion, and in the woods at Ginneken is a Kneipp sanatorium.

BREDA, is a fortified town in North Brabant, Holland, located where the canalized rivers Merk and Aa meet, 15 miles by rail E.N.E. of Roozendaal. Its population was 26,296 in 1900. The town is connected by steam tramway to Antwerp (30 miles S.S.W.), and to Geertruidenberg in the north, as well as the island of Duiveland to the west. The fortress of Breda, once thought to be indestructible, has been dismantled, yet the town remains protected by extensive fortifications and is in an area that can easily be flooded. It features a beautiful quay, town hall, and park. There are several Roman Catholic and Protestant churches, with the main Protestant church being a Gothic structure from the late 13th century, featuring a fine tower and a later choir built in 1410. Among the many notable monuments is the impressive tomb of Count Engelbert II of Nassau and his wife, crafted by Tomasino Vincenz of Bologna. Although he studied painting under Raphael, Vincenz followed Michelangelo for sculpture, sometimes leading to this work being attributed to Michelangelo. Since 1828, Breda has hosted a royal military academy for all branches of the service. The town also has a Latin school, an arsenal, and a modern prison designed on the isolated-cell principle. This prison is shaped like a rotunda, 58 yards in diameter, topped with a high dome. In the center is the administration office, with a small watchtower above it. Along the walls of the rotunda are 208 cells, arranged in four tiers with balconies accessed by iron staircases. Each cell is 35 cubic yards, has an electric bell connected to the guard in the tower, is heated by hot-air pipes, and receives natural light from a window on the outer wall of the rotunda, as well as electric light from sunset until ten o’clock. The industry in Breda includes producing linen and woolen goods, carpets, hats, beer, and musical instruments. Nearby, there are the villages of Ginneken and Prinsenhage, set amidst lovely pine woods, which are popular excursion spots, and Ginneken hosts a Kneipp sanatorium.

History.—Breda was in the 11th century a direct fief of the Holy Roman Empire, its earliest known lord being Henry I. (1098-1125), in whose family it continued, though, from the latter part of the 13th century, in the female line, until Alix, heiress of Philip (d. 1323), sold it to Brabant. In 1350 the fief was resold to John (Jan) of Polanen (d. 1377), the heiress of whose line, Joanna (d. 1445), married Engelbert of Nassau-Dillenburg (d. 1442). Henceforth it remained in the house of Nassau, passing ultimately to William I. (1533-1584), the first stadtholder of the Netherlands. Breda obtained municipal rights in 1252, but was first surrounded with walls in 1534 by Count Henry of Nassau, who also restored the old castle, originally built by John of Polanen in 1350. From this period until late in the 19th century it remained the most important of the line of fortresses along the Meuse. Breda was captured by surprise by the Spaniards in 1581; but in 1590 it fell again into the hands of Maurice of Nassau, 68 picked men contriving to get into the town concealed under the turf in a peat-boat. The so-called “Spaniard’s Hole” still marks the spot where the peat-boat lay. Its surrender in 1625, after a ten months’ siege, to the Spaniards under Spinola is the subject of the famous picture by Velasquez in the Museo del Prado in Madrid. In 1637 Breda was recaptured by Frederick Henry of Orange after a four months’ siege, and in 1648 it was finally ceded to Holland by the treaty of Westphalia. During the wars of the French Revolution, it was taken by Dumouriez in 1793, evacuated soon after and retaken by Pichegru in 1795, after the whole of Holland had already succumbed to the French. In 1813, a sally being made by the French garrison on an advance-guard of the Russians under Benckendorff, the citizens of Breda again made themselves masters of the town.

History.—In the 11th century, Breda was a direct fief of the Holy Roman Empire, with its earliest known lord being Henry I (1098-1125). It remained in his family's possession, but starting in the late 13th century, it passed down through the female line until Alix, heiress of Philip (d. 1323), sold it to Brabant. In 1350, the fief was resold to John (Jan) of Polanen (d. 1377), and his heiress, Joanna (d. 1445), married Engelbert of Nassau-Dillenburg (d. 1442). From that point on, it stayed with the House of Nassau, eventually passing to William I (1533-1584), the first stadtholder of the Netherlands. Breda received municipal rights in 1252, but it was first surrounded by walls in 1534 by Count Henry of Nassau, who also restored the old castle initially built by John of Polanen in 1350. From then until the late 19th century, it was the most significant fortress along the Meuse River. The Spaniards captured Breda by surprise in 1581; however, in 1590 it was seized again by Maurice of Nassau, with 68 soldiers managing to sneak into the town hidden under turf in a peat-boat. The spot where the peat-boat rested is still known as the "Spaniard’s Hole." Its surrender in 1625, after a ten-month siege by the Spaniards under Spinola, is famously depicted in a painting by Velasquez in the Museo del Prado in Madrid. In 1637, Breda was recaptured by Frederick Henry of Orange after a four-month siege, and in 1648 it was finally ceded to Holland by the Treaty of Westphalia. During the French Revolutionary Wars, it was taken by Dumouriez in 1793, evacuated shortly after, and retaken by Pichegru in 1795, following the French conquest of the rest of Holland. In 1813, after a French garrison launched an attack on a Russian advance guard under Benckendorff, the citizens of Breda once again took control of the town.

Breda was the residence, during his exile, of Charles II., who, by the declaration of Breda (1660), made known the conditions of his acceptance of the crown of England. In 1696 William, prince of Orange and king of England, built the new castle, one of the finest buildings of the period, which now serves as the military academy. Breda also derives some celebrity from the various political congresses of which it has been the scene. In 1575 a conference was held here between the ambassadors of Spain and those of the United Provinces; in 1667 a peace was signed between England, Holland, France and Denmark; and in 1746-1747 the representatives of the same powers met in the town to discuss the terms of another treaty.

Breda was the home, during his exile, of Charles II., who, through the declaration of Breda (1660), revealed the terms of his acceptance of the English crown. In 1696, William, Prince of Orange and King of England, built the new castle, one of the finest buildings of the time, which now serves as the military academy. Breda is also notable for the various political meetings that have taken place there. In 1575, a conference was held here between the ambassadors of Spain and those of the United Provinces; in 1667, a peace treaty was signed among England, Holland, France, and Denmark; and in 1746-1747, representatives of the same countries gathered in the town to discuss the terms of another treaty.


BREDAEL, JAN FRANS VAN (1683-1750), Flemish painter, son of Alexander van Bredael (d. 1720), who was also an artist, was born in Antwerp. He imitated the style of Wouverman and Breughel with such dexterity that even connoisseurs are often unable to distinguish his copies of their pictures from the originals. He visited England, where he was so well employed that in a few years he was able to retire to his native country with a competency. The earl of Derwentwater was one of his chief patrons. There were several other van Bredaels, who won honour as artists—notably Pieter (1622-1719), Alexander’s father, and Jozef (1688-1739). They were formerly known as “Breda,” but this apparently is incorrect, though it occurs as a signature on a picture by Jan Frans in the Amsterdam gallery.

BREDAEL, JAN FRANS VAN (1683-1750), a Flemish painter, son of Alexander van Bredael (d. 1720), who was also an artist, was born in Antwerp. He replicated the styles of Wouverman and Breughel with such skill that even experts often struggle to tell his copies apart from the originals. He traveled to England, where he found such good work that within a few years he was able to return to his home country with financial stability. The Earl of Derwentwater was one of his main patrons. There were several other van Bredaels who gained recognition as artists—notably Pieter (1622-1719), Alexander’s father, and Jozef (1688-1739). They were previously referred to as “Breda,” but this is apparently inaccurate, although it appears as a signature on a painting by Jan Frans in the Amsterdam gallery.

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BREDERODE, HENRY, Count of (1531-1568), was born at Brussels in 1531. He was the descendant of an ancient race, which had for some centuries been settled in Holland, and had taken an active part in the affairs of war and peace. Count Henry became a convert to the Reformed faith and placed himself at the side of the prince of Orange and Count Egmont in resisting the introduction of the Spanish Inquisition and Spanish despotism into the Netherlands. In 1566 he was one of the founders of the confederacy of nobles who bound themselves to maintain the rights and liberties of the country by signing a document known as “the Compromise.” On the 5th of April of that year Brederode accompanied to the palace a body of 250 confederates, of whom he acted as the spokesman, to present to the regent, Margaret of Parma, a petition setting forth their grievances, called “the Request.” It was at a banquet at the Hotel Culemburg on the 8th of April, presided over by Brederode, that the sobriquet of les Gueux, or “the Beggars,” was first given to the opponents of Spanish rule. Brederode was banished from the Netherlands by Alva, and died in exile shortly afterwards at the early age of thirty-six.

BREDERODE, HENRY, Count of (1531-1568), was born in Brussels in 1531. He came from an ancient lineage that had been established in Holland for several centuries and had actively participated in both war and peace. Count Henry converted to the Reformed faith and joined the Prince of Orange and Count Egmont in opposing the Spanish Inquisition and Spanish tyranny in the Netherlands. In 1566, he was one of the founders of a group of nobles who committed to uphold the rights and freedoms of the country by signing a document known as “the Compromise.” On April 5th of that year, Brederode led a group of 250 confederates to the palace, where he served as their spokesperson to present a petition outlining their complaints, called “the Request,” to the regent, Margaret of Parma. It was during a banquet at the Hotel Culemburg on April 8th, chaired by Brederode, that the nickname les Gueux, or “the Beggars,” was first assigned to those opposing Spanish rule. Brederode was exiled from the Netherlands by Alva and died in exile shortly afterward at the young age of thirty-six.


BREDOW, GOTTFRIED GABRIEL (1773-1814), German historian, was born at Berlin on the 14th of December 1773, and became successively professor at the universities of Helmstadt, Frankfort-on-Oder and Breslau. He died at Breslau on the 5th of September 1814. Bredow’s principal works are Handbuch der alien Geschichte, Geographic und Chronologie (Eutin, 1799; English trans., London, 1827); Chronik des 19. Jahrhunderts (Altona, 1801); Entwurf der Weltkunde der Alten (Altona, 1816); Weltgeschichte in Tabellen (Altona, 1801; English trans, by J. Bell, London, 1820); Grundriss einer Geschichte der merkwürdigsten Welthändel von 1796-1810 (Hamburg, 1810).

BREDOW, GOTTFRIED GABRIEL (1773-1814), German historian, was born in Berlin on December 14, 1773, and went on to be a professor at the universities of Helmstadt, Frankfort-on-Oder, and Breslau. He passed away in Breslau on September 5, 1814. Bredow's main works include Handbook of Ancient History, Geography, and Chronology (Eutin, 1799; English trans., London, 1827); Chronicle of the 19th Century (Altona, 1801); Outline of the Geography of the Ancients (Altona, 1816); World History in Tables (Altona, 1801; English trans. by J. Bell, London, 1820); Blueprint for a History of Notable World Events from 1796-1810 (Hamburg, 1810).

Bredow’s posthumous writings were edited by J.G. Kunisch (Breslau, 1823), who added a biography of the author.

Bredow's writings released after his death were edited by J.G. Kunisch (Breslau, 1823), who included a biography of the author.


BREDOW, a village of Germany, in the kingdom of Prussia, immediately north of Stettin, of which it forms a suburb. Here are the Vulcan iron-works and shipbuilding yards, where the liners “Deutschland” (1900), the “Kaiserin Augusta Victoria” (1906), and the “George Washington” (1908), the largest vessel (722 ft. long, 27,000 tons) in the German mercantile marine, were built; and also sugar, cement and other factories.

BREDOW, a village in Germany, located in the Prussian kingdom, is just north of Stettin and serves as a suburb. This area is home to the Vulcan ironworks and shipyards, where the liners “Deutschland” (1900), “Kaiserin Augusta Victoria” (1906), and “George Washington” (1908) were built. The “George Washington” is the largest vessel in the German merchant fleet, measuring 722 ft. long and weighing 27,000 tons. There are also factories for sugar, cement, and other products.


BREECH (common in early forms to Teutonic languages), a covering for the lower part of the body and legs. The Latin braca or bracca is a Celtic word, probably cognate with the Teutonic. The word in its proper meaning is used in the plural, and, strictly, is confined to a garment reaching to the knees only. The meaning of “the hinder part of the body” is later than, and derived from, its first meaning; this sense appears in the “breech” or hinder part of a gun. The word is also found in “breeches buoy,” a sling life-saving apparatus, consisting of a support of canvas breeches. The “Breeches Bible,” a name for the Geneva Bible of 1560, is so called because “breeches” is used for the aprons of fig-leaves made by Adam and Eve. On the stage the phrase a “breeches” part is used when a woman plays in male costume. “Breeching” is a strap passed round the breech of a harnessed horse and joined to the shafts to allow a vehicle to be backed.

BREECH (common in earlier forms of Teutonic languages) refers to a garment that covers the lower body and legs. The Latin words braca or bracca originate from Celtic, likely related to the Teutonic. The term is primarily used in the plural form and specifically refers to a garment that extends to the knees. The meaning of “the back part of the body” developed later and comes from its original meaning; this use is seen in the “breech” or back part of a gun. The term also appears in “breeches buoy,” a life-saving device made of canvas breeches used as a sling. The “Breeches Bible,” which refers to the Geneva Bible from 1560, is named because “breeches” represents the fig-leaf aprons fashioned by Adam and Eve. In theater, the term “breeches” denotes a role where a woman dresses in male attire. “Breeching” refers to a strap that goes around the back of a harnessed horse and connects to the shafts to enable the vehicle to back up.


BREEDS AND BREEDING. Breeds may be defined as domestic varieties of animals or plants which man has been able to bring into existence and to maintain in existence. The process of breeding includes all the modifying influences which man may bring to bear on a wild stock for the purpose, conscious or unconscious, of establishing and maintaining breeds. Charles Darwin’s Variation of Animals and Plants under Domestication (1868) was the starting-point of exact knowledge on this subject; when it appeared, it contained not only the best collection of empirical facts, but the only rational theory of the facts. The first relations between man and domesticated animals and plants were due to unconscious or accidental selection of wild stocks that tolerated the vicinity of man and that were useful or attractive to him. The new conditions must have produced modifications in these stocks, whether these were caused by a survival in each generation of individuals with the power of response to the new environment, or were due to a conscious selection of individuals capable of such favourable response. The essence of the process, however, came to be a conscious selection in each generation of the best individuals, that is to say, of those individuals that seemed to man to be most adapted to his wants. The possibility of establishing a breed depended, therefore, in the first place on the natural variability of wild animals and plants, then on the variations induced in animals and plants under subjection to the new conditions brought about by man’s interference, next on the extent to which these variations, natural or artificial, persisted through the series of generations, and finally on man’s intelligence in altering or maintaining the conditions of the environment, and in selective mating. The theory of breeds and breeding depends, in fact, on knowledge of variation, of modification by the environment, and of heredity. Any attempt to give an account of what actually has been done by man in establishing breeds would be little more than an imperfect summary of Darwin’s work. The articles Heredity, Mendelism and Variation and Selection show that what may be called the theoretical and experimental knowledge of variation and heredity is far in advance of the practical art of breeding. Even horticulturists, who have been much more successful than those who deal with animals, are still far from being able to predict the result of their selections and crossings. None the less it may be stated definitely that such prediction is already so nearly within the power of the practical breeder that it would be a waste of time to give a summary of the existing rule-of-thumb methods. The art of breeding is so immediately destined to become a science of breeding that existing knowledge and conceptions must be dismissed as of no more than historical interest.

Breeds and Breeding. Breeds are domestic varieties of animals or plants that humans have created and continue to maintain. Breeding involves all the ways humans can influence wild stock, either deliberately or accidentally, to establish and sustain breeds. Charles Darwin’s Variation of Animals and Plants under Domestication (1868) was the key work that provided accurate knowledge on this topic; it included not only a top collection of empirical data but also the only logical theory to explain the facts. The initial relationships between humans and domesticated animals and plants arose from the unintentional or random selection of wild stocks that were tolerant of human presence and beneficial or attractive to us. The new conditions must have led to changes in these stocks, whether through the survival of individuals that could adapt to the new environment in each generation, or through the conscious selection of individuals capable of such favorable adaptation. However, the core of the process became the deliberate selection of the best individuals in each generation, meaning those that seemed most suited to human needs. The ability to establish a breed relied first on the natural variability of wild animals and plants, then on the changes induced in them under the new conditions caused by human intervention, next on how long these changes—whether natural or artificial—persisted through generations, and finally on human intelligence in changing or maintaining environmental conditions and in selective breeding. The theory of breeds and breeding depends fundamentally on understanding variation, environmental modification, and heredity. Any attempt to summarize what humans have accomplished in creating breeds would mainly be an incomplete overview of Darwin’s work. The articles Heredity, Mendelism, and Variation and Selection demonstrate that the theoretical and experimental understanding of variation and heredity significantly surpasses the practical skills of breeding. Even horticulturists, who have been much more successful than animal breeders, still struggle to predict the outcomes of their selections and crosses. Nevertheless, it can be clearly stated that such predictions are now almost within the reach of practical breeders, making it pointless to summarize the current trial-and-error methods. The art of breeding is on the verge of becoming a science of breeding, such that existing knowledge and concepts should be viewed as primarily of historical significance.

(P. C. M.)

BREEZE, (1) A current of air generally taken as somewhat less than a “wind,” which in turn is less than a “gale.” The term is particularly applied to the light wind blowing landwards by day, “sea-breeze,” and the counter wind, blowing off the land at night, “land-breeze.” The word appears in Fr. brise (admitted by the Academy in 1762). The Span, brisa, Port. briza, and Ital. brezza are used for a wind blowing from the north or north-east. According to Cotgrave, Rabelais uses brize in the sense of bise, the name of a dry north or north-east wind prevalent in Switzerland and the bordering parts of France, Italy and Germany. The word is first used in English as applied to the cool sea-breeze blowing usually from the east or north-east in the West Indies and Atlantic sea-coast of Central America. It was then applied to sea-breezes from any quarter, and also to the land-breeze, and so to any light wind or current of air. (2) Fine ashes or cinders, the refuse of coal, coke and charcoal burning. This is probably from the O. Fr. brese, modern braise, a word connected with braser, whence Eng. brazier, a pan for burning coals, charcoal, &c.

BREEZE, (1) A current of air that is typically considered a bit lighter than a “wind,” which is, in turn, lighter than a “gale.” The term specifically refers to the light wind that blows from the sea toward the land during the day, known as “sea-breeze,” and the reverse wind that blows from the land back to the sea at night, known as “land-breeze.” The word comes from the French brise (adopted by the Academy in 1762). The Spanish brisa, Portuguese briza, and Italian brezza refer to a wind coming from the north or northeast. According to Cotgrave, Rabelais uses brize meaning bise, a type of dry north or northeast wind commonly found in Switzerland and neighboring regions of France, Italy, and Germany. The term was first used in English to describe the cool sea-breeze that usually blows from the east or northeast in the West Indies and along the Atlantic coast of Central America. It later expanded to refer to sea-breezes from any direction, as well as to land-breezes, and then to any light wind or current of air. (2) Fine ashes or cinders, the leftovers from burning coal, coke, and charcoal. This likely comes from the Old French brese, modern braise, a word related to braser, which gives us the English brazier, a pan used for burning coals, charcoal, etc.


BREGENZ (anc. Brigantium), the capital of the Austrian, province of Vorarlberg, as well as of the administrative district of Bregenz. In 1900 its population was 7595, German-speaking and Roman Catholic. It is situated at the south-east angle of the Lake of Constance, and, besides communications by water with the other towns on the shores of that lake, is connected by: rail with Feldkirch on the Arlberg line (24 m.) and with Munich. The old town is on a hillock, crowned by the ancient castle, while the new town is built on the level ground at the foot of the hill. The fine parish church (dedicated to St Gall) stands on another mound more to the south. In the local museum are collections of various kinds, especially of the Roman antiquities which have been dug up on the site of the old town. The position of the town on the lake has always made it an important port and commercial centre. Nowadays the main trade is in grain, but much is done also in cattle and in the products of the cotton-spinning factories of Vorarlberg.

BREGENZ (formerly Brigantium) is the capital of the Austrian province of Vorarlberg and the Bregenz administrative district. In 1900, it had a population of 7,595, primarily German-speaking and Roman Catholic. It’s located at the southeast corner of Lake Constance and, in addition to boat connections with other towns around the lake, it has rail links to Feldkirch on the Arlberg line (24 miles away) and Munich. The old town is on a small hill, topped by an ancient castle, while the new town is built on flat land at the hill's base. The impressive parish church, dedicated to St. Gall, stands on another mound further south. The local museum holds various collections, especially Roman artifacts that have been excavated from the old town site. The town's location by the lake has always made it an important port and commercial hub. Today, grain is the main trade, but there’s also significant business in cattle and products from Vorarlberg’s cotton-spinning factories.

We hear of counts of Bregenz as early as the 10th century, their heirs in the early 13th century being the counts of Montfort (a castle north of Feldkirch), who gradually acquired most of the surrounding country (including Feldkirch and Bludenz). But little by little the Habsburgers, counts of Tirol since 1363 488 bought from them most of their domains—first Feldkirch in 1375, next Bludenz and the Montafon valley in 1394, finally the county of Bregenz in two parts, acquired in 1451 and 1523. In 1408 the Appenzellers were defeated before Bregenz, while in 1647, during the Thirty Years’ War, the town was sacked by the Swedes under Wrangel.

We hear about the counts of Bregenz as early as the 10th century, with their heirs in the early 13th century being the counts of Montfort (a castle north of Feldkirch), who gradually took over most of the surrounding areas, including Feldkirch and Bludenz. However, over time, the Habsburgs, who became counts of Tirol in 1363, bought most of their lands from them—first Feldkirch in 1375, then Bludenz and the Montafon valley in 1394, and finally the county of Bregenz in two parts, acquired in 1451 and 1523. In 1408, the Appenzellers were defeated outside Bregenz, and in 1647, during the Thirty Years’ War, the town was looted by the Swedes under Wrangel.

(W. A. B. C.)

BREHON LAWS, the English but incorrect appellation of the ancient laws of Ireland, the proper name for which is Feineachas, meaning the laws of the Feine or Feini (fainyeh), who were the free Gaelic farmers. Dlighthe Feine is another name for the laws, with the same meaning. Laws of universal application which could be administered only by duly qualified judges were called Câin law, while minor laws administered by nobles and magistrates were called Urradhus law. Regular courts and judges existed in Ireland from prehistoric times. The Anglo-Irish word “Brehon” is derived from the Gaelic word Brethem (= judge).

BREHON LAWS, is the English but incorrect name for the ancient laws of Ireland, which are properly called Feineachas, meaning the laws of the Feine or Feini (fainyeh), who were the free Gaelic farmers. Dlighthe Feine is another name for the laws with the same meaning. Laws that applied universally and could only be enforced by qualified judges were called Câin law, while minor laws enforced by nobles and magistrates were referred to as Urradhus law. Regular courts and judges have existed in Ireland since prehistoric times. The Anglo-Irish term “Brehon” comes from the Gaelic word Brethem (= judge).

The extant remains of these laws are manuscript transcripts from earlier copies made on vellum from the 8th to the 13th century, now preserved with other Gaelic manuscripts in Trinity College and the Royal Irish Academy, Dublin, the British Museum, Oxford University, some private collections and several libraries on the continent of Europe. The largest and most important of these documents is the Senchus Mór or “Great Old Law Book.” No copy of it now existing is complete, and some portions are missing from all. What remains of it occupies the first, second, and a portion of the third of the volumes produced by the Brehon Law Commission, which was appointed in 1852.

The surviving versions of these laws are handwritten copies from earlier texts created on vellum between the 8th and 13th centuries. These are now kept along with other Gaelic manuscripts in Trinity College and the Royal Irish Academy in Dublin, the British Museum, Oxford University, several private collections, and various libraries across Europe. The most significant of these documents is the Senchus Mór or “Great Old Law Book.” No existing copy is complete, and some parts are missing from all of them. What remains includes the first and second volumes, as well as part of the third volume produced by the Brehon Law Commission, established in 1852.

In the Annals of the Four Masters it is said: “The age of Christ 438, the tenth year of King Laeghaire (Lairy), the Senchus Mór and Feineachas of Ireland were purified and written.” This entry has ample historical corroboration. Of many separate treatises dealing with special branches of the law, the Book of Aicill, composed of opinions or placita of King Cormac Mac Art, otherwise Cormac ua Quim, Ard-Rig of Erinn from A.D. 227 until 266, and Cennfaeladh the Learned, who lived in the first part of the 7th century, is the most important.

In the Annals of the Four Masters, it states: “In the year 438 of Christ, the tenth year of King Laeghaire (Lairy), the Senchus Mór and Feineachas of Ireland were refined and documented.” This entry is well-supported by historical evidence. Among various texts focusing on specific areas of law, the Book of Aicill, which contains the opinions or decisions of King Cormac Mac Art, also known as Cormac ua Quim, who was the High King of Ireland from CE 227 to 266, along with Cennfaeladh the Learned, who lived in the early 7th century, is the most significant.

The text and earlier commentaries are in the Bearla Feini—the most archaic form of the Celtic or Gaelic language. From gradual changes in the living tongue through a long expanse of time many words, phrases and idioms in the Bearla Feini became obsolete, and are so difficult to translate that the official translations are to some extent confessedly conjectural. In many cases only opening words of the original text remain. Wherever the text is whole, it is curt, elliptical, and yet rhythmical to a degree attainable only through long use. The rigorously authentic character of these laws, relating to, and dealing with, the actual realities of life, and with institutions and a state of society nowhere else revealed to the same extent, the extreme antiquity both of the provisions and of the language, and the meagreness of continental material illustrative of the same things, endow them with exceptional archaic, archaeological and philological interest.

The text and earlier commentaries are in the Bearla Feini—the oldest form of the Celtic or Gaelic language. Over time, as the spoken language evolved, many words, phrases, and idioms in the Bearla Feini became outdated and are so hard to translate that the official translations are somewhat admitted to be guesswork. In many instances, only the opening words of the original text remain. Where the text is complete, it is brief, indirect, and yet has a rhythm only achievable through long use. The strictly authentic nature of these laws, which relate to and address the actual realities of life, and the institutions and social conditions not revealed elsewhere to the same degree, along with the extreme antiquity of both the regulations and the language, and the scarcity of continental material illustrating the same topics, give them exceptional archaic, archaeological, and philological significance.

In the earliest times all learned men, whether specially learned in law or not, appear to have acted as judges. Gradually as literature and learning increased, judgments delivered by men without special legal training fell into disfavour. In the 1st century of the Christian era, when Conchobhar or Conor Mac Nessa was king of Ulster, a crisis was reached, the result of which was that no man was allowed to act as Brehon until he had studied the full law course, which occupied twenty years, and had passed a rigorous public examination. The course of study for Brehon and Ollamh, advocate and law-agent respectively, is carefully laid down in the law itself. The Brehonship was not an office of state like that of the modern judge, but a profession in which success depended upon ability and judgment. The Brehon was an arbitrator, umpire, and expounder of the law, rather than a judge in the modern acceptation. It appears, without being expressly stated, that the facts of a case were investigated and ascertained by laymen, probably by the Aireachtas—a local assembly or jury—before submission to a Breton for legal decision. A Brehon whose decision was reversed upon appeal was liable to damages, loss of position and of free lands, if any, disgrace, and a consequent loss of his profession. No Brehon had any fixed territorial jurisdiction. A party initiating proceedings could select any Brehon he pleased, if there were more than one in his district. Every king or chief of sufficient territory retained an official Brehon, who was provided with free land for his maintenance. In ordinary cases the Brehon’s fee was said to have been one-twelfth of the amount at stake.

In ancient times, all educated people, whether they specialized in law or not, seemed to have acted as judges. As literature and education grew, judgments made by those without specific legal training became less popular. By the 1st century of the Christian era, during Conchobhar or Conor Mac Nessa's reign in Ulster, a significant change happened. From then on, no one could serve as a Brehon until they had completed an extensive 20-year law course and passed a tough public exam. The study path for Brehons and Ollamhs, who were advocates and law agents respectively, is clearly outlined in the law itself. The role of a Brehon was not a state office like that of today’s judges; instead, it was a profession where success relied on skill and judgment. A Brehon acted more as an arbitrator, referee, and interpreter of the law rather than a judge in the contemporary sense. It seems, though not explicitly stated, that laypeople likely investigated and gathered the facts of a case, probably through the Aireachtas—a local assembly or jury—before it was brought to a Brehon for a legal ruling. If a Brehon's decision was overturned on appeal, they could face damages, loss of status, loss of free land (if any), public shame, and a subsequent loss of their profession. Brehons did not have a fixed geographical jurisdiction. A party starting legal proceedings could choose any Brehon they wanted, provided there were multiple Brehons in their area. Every king or chief with enough land had an official Brehon, who was given free land for their support. In typical cases, it was said that the Brehon's fee was one-twelfth of the amount at stake.

Assemblies, national, provincial and local, were a marked characteristic of ancient Irish life. They all, without exception, discharged some legal functions, legislative or administrative, and even in those in which amusement predominated, the Cáin law was publicly rehearsed. Most of the assemblies were annual, some triennial, some lasted only a day or two, others a week and occasionally longer. All originated in pagan funeral or commemorative rites, and continued to be held, even in Christian times, in very ancient cemeteries. They were called by different names—Feis, Aenach, Aireachtas, Dál, &c.

Assemblies at the national, provincial, and local levels were a significant part of ancient Irish life. They all, without exception, had some legal responsibilities, whether legislative or administrative, and even those focused on entertainment included public recitals of the Cáin law. Most of the assemblies happened annually, some every three years, some lasted just a day or two, while others could last a week or even longer. They all started from pagan funeral or commemorative rituals and continued to take place, even during Christian times, in very old cemeteries. They were known by various names—Feis, Aenach, Aireachtas, Dál, &c.

The Feis of Tara, in Meath, was from its origin seven centuries before Christ down to A.D. 560, mainly national and political, being convened by the Ard-Rig, held at his residence, presided over by him, and consisting of the provincial kings, tanists, flaiths, Brehons, warriors, historians, poets and other distinguished men from the whole of Ireland. It was due to be held every third year for the purpose of “preserving the laws and rules,” and it might be called specially on any urgent occasion. After the statesmen had consulted, the laws were proclaimed, with any modifications agreed upon. Then the proceedings became festive, queens and great ladies taking part. The Feis of A.D. 560 was the last regular one held at Tara because the monarch ceased to reside there. One national assembly of an exceptional character was held at Tara in A.D. 697, by a decree of which women were emancipated from liability to military service.

The Feis of Tara, in Meath, originated seven centuries before Christ and lasted until A.D. 560. It was primarily a national and political event, convened by the Ard-Rig, held at his residence, and presided over by him. It included the provincial kings, tanists, flaiths, Brehons, warriors, historians, poets, and other distinguished individuals from all over Ireland. The event was scheduled to take place every three years to “preserve the laws and rules,” and it could be called together in urgent situations. After discussions among the statesmen, the laws were announced, along with any changes that were agreed upon. Then the atmosphere turned festive, with queens and prominent ladies participating. The Feis in A.D. 560 was the last regular one held at Tara because the monarch stopped residing there. An exceptional national assembly took place at Tara in A.D. 697, during which women were freed from the obligation of military service.

The Aenach held annually at Tailltenn, also in Meath, was a general assembly of the people without restriction of rank, clan or country, and became the most celebrated for athletic sports, games and contests. Yet even here the laws were read aloud, and it is not without significance that the last national assembly held at Tailltenn under King Rhoderic O’Connor in 1168 was a political one.

The Aenach, held every year at Tailltenn in Meath, was an open assembly for everyone, regardless of rank, clan, or country, and it became the most famous for athletic sports, games, and contests. Even there, the laws were read out loud, and it’s noteworthy that the last national assembly at Tailltenn, under King Rhoderic O’Connor in 1168, was a political gathering.

The Dál-Criche (= territorial assembly), held at Uisneach in Westmeath, was a gathering for political and quasi-legislative purposes. At one assembly there about a century before Christ, a uniform law of distraint for the whole of Ireland was adopted on the motion of Sen, son of Aigé. This did not prevent the gatherings at Uisneach from being for ages celebrated for gaiety and amusement.

The Dál-Criche (= territorial assembly), held at Uisneach in Westmeath, was a meeting for political and semi-legislative purposes. At one assembly about a century before Christ, a uniform law for seizing property across all of Ireland was passed at the suggestion of Sen, son of Aigé. However, this didn't stop the gatherings at Uisneach from being famous for their fun and entertainment for many years.

Each provincial kingdom and each tuath had assemblies of its own. Every flaith and flaith-fine was a member of a local assembly, the clan system conferring the qualification, and there being no other election.

Each provincial kingdom and each tuath had its own assemblies. Every flaith and flaith-fine was a member of a local assembly, with the clan system providing the qualification and no other form of election.

An assembly when convened by the Bruigh-fer for the special purpose of electing a tanist or successor to the king was called a Tocomra.

An assembly called by the Bruigh-fer specifically to elect a tanist or successor to the king was known as a Tocomra.

Very careful provision is made for the preparation of the sites of great assemblies, and the preservation of peace and order at them is sanctioned by the severest penalties of the law. The operation of every legal process calculated to occasion friction, such as seizure of property, was suspended during the time the assemblies lasted.

Very careful arrangements are in place for setting up the locations of large gatherings, and keeping peace and order at these events is enforced with strict legal penalties. Any legal actions that could cause conflicts, like property seizures, were put on hold during the duration of the assemblies.

The term Rig (reeh = rex, king) was applied to four classes or grades of rulers, the lower grades being grouped, each group being subject to one of their number, and all being subject to, and owing tribute and allegiance to the Ard-Rig (= supreme king of Erinn). The Ard-Rig had an official residence at Tara and the kingdom of Meath for his special use. The provincial king, Rig Cuicidh, also had an official residence and kingdom of his own, together with allegiance and tribute from each Rig-mor-Tuatha in his province, who in his turn received tribute and allegiance from each Rig-Tuatha under subjection to him. The Rig-Tuatha received 489 tribute and allegiance from the flaiths or nobles in his tuath. The tuath was the political unit, and the ruler of it was the lowest to whom the term “king” was applied. For each payment of tribute a king always made some return. Every king was obliged, on his inauguration, to swear that he would govern justly and according to law, to which he remained always subject. The Ard-Rig was selected by the sub-kings and other leading men who legally constituted the Feis of Tara, the sub-kings by those under them in their respective spheres. No person not of full age, imperfectly educated, stupid, blind, deaf, deformed or otherwise defective in mind or body, or for any reason whatsoever unfit to discharge the duties or unworthy to represent the manhood of the nation, could be king, even though he were the eldest son of the preceding king. “It is a forbidden thing for one with a blemish to be king at Tara.”

The term Rig (reeh = rex, king) was used for four classes or levels of rulers, with the lower levels grouped together, and each group being overseen by one of their own. All of them were under the authority of the Ard-Rig (= supreme king of Erinn), to whom they owed tribute and loyalty. The Ard-Rig resided officially at Tara and had the kingdom of Meath for his personal use. The provincial king, Rig Cuicidh, also had his own official residence and kingdom, receiving tribute and loyalty from each Rig-mor-Tuatha in his province, who in turn received tribute and loyalty from each Rig-Tuatha under his control. The Rig-Tuatha collected tribute and loyalty from the flaiths or nobles in his tuath. The tuath was the political unit, and its ruler was the lowest person referred to as a "king." For every tribute payment, a king was expected to give something back. Upon taking office, every king had to swear to govern fairly and according to the law, which he was always bound to uphold. The Ard-Rig was chosen by the sub-kings and other prominent leaders who legally made up the Feis of Tara, with the sub-kings selected by those below them in their respective roles. No one who was underage, poorly educated, stupid, blind, deaf, deformed, or otherwise incapable or unworthy of representing the nation's manhood could become king, even if they were the eldest son of the previous king. “It is forbidden for someone with a blemish to be king at Tara.”

Tuath, Cinel and Clann were synonyms meaning a small tribe or nation descended from a common ancestor. A king and clan being able, subject to certain limitations, to adopt new members or families, or amalgamate with another clan, the theory of common origin was not rigidly adhered to. Kinship with the clan was an essential qualification for holding any office or property. The rules of kinship largely determined status with its correlative rights and obligations, supplied the place of contract and of laws affecting the ownership, disposition and devolution of property, constituting the clan an organic, self-contained entity, a political, social and mutual insurance co-partnership. The solidarity of the clan was its most important and all-pervading characteristic. The entire territory occupied by a clan was the common and absolute property of that clan. Subject to this permanent and fundamental ownership, part of the land was set apart for the maintenance of the king as such. Warriors, statesmen, Brehons, Ollamhs, physicians, poets, and even eminent workers in the more important arts, were, in different degrees, rewarded with free lands for their respective public services. On the death of any person so rewarded, the land in theory reverted to the clan; but if like services continued to be rendered by the son or other successor, and accepted by the clan, the land was not withdrawn. The successors of statesmen, for whom the largest provision was made, became a permanent nobility. Flaith (flah = noble chief) was a term applied to a man of this rank. Rank, with the accompanying privileges, jurisdiction and responsibility, was based upon a qualification of kinship and of property, held by a family for a specified number of generations, together with certain concurrent conditions; and it could be lost by loss of property, crime, cowardice or other disgraceful conduct. The flaiths in every tuath and all ranks of society were organized on the same hierarchical pattern as royalty. A portion of land called the Cumhal Senorba was devoted to the support of widows, orphans and old childless people.

Tuath, Cinel, and Clann were terms that meant a small tribe or nation descended from a common ancestor. A king and clan could, within certain limits, adopt new members or merge with another clan, so the idea of a shared origin wasn't strictly followed. Being related to the clan was a crucial requirement for holding any office or owning property. Kinship rules mainly determined status and the corresponding rights and responsibilities, replacing contracts and laws regarding ownership, transfer, and inheritance of property, making the clan a cohesive, self-sufficient unit—a political, social, and mutual insurance partnership. The unity of the clan was its most important and obvious characteristic. The entire land occupied by a clan was the collective and absolute property of that clan. Under this permanent and fundamental ownership, part of the land was set aside for the king’s support. Warriors, statesmen, Brehons, Ollamhs, physicians, poets, and even skilled artisans were, to varying degrees, rewarded with free land for their public services. When any rewarded individual died, the land theoretically reverted to the clan; however, if the son or another successor continued to provide similar services and the clan accepted it, the land wasn’t taken back. The descendants of statesmen, who received the most support, formed a permanent nobility. The term Flaith (flah = noble chief) was used for individuals of this rank. Rank, along with the rights, jurisdiction, and responsibilities that came with it, was based on a combination of kinship and property held by a family for a certain number of generations, along with specific concurrent conditions; it could be lost due to loss of property, crime, cowardice, or other dishonorable actions. Flaiths in every tuath and all societal ranks were organized in the same hierarchical way as royalty. A portion of land called Cumhal Senorba was designated to support widows, orphans, and elderly childless people.

Fine (finna), originally meaning family, came in course of time to be applied to a group of kindred families or to a whole clan. From differences between incidental accounts written in different ages, it appears that the social system underwent some change. For the purpose of conveying some idea, one theory may be taken, according to which the fine was made up of seventeen clansmen, with their families, viz. the Geilfine consisting of the flaith-fine and four others in the same or nearest degree of kinship to the centre, and the Deirbhfine, Tarfine and Innfine, each consisting of four heads of families, forming widening concentric circles of kinship to which the rights and liabilities of the fine extended with certainty, but in diminishing degrees.

Fine (finna), which originally meant family, eventually came to refer to a group of related families or an entire clan. Based on variations in accounts written in different times, it seems that the social structure changed somewhat. To illustrate a concept, one theory suggests that the fine was composed of seventeen clansmen and their families. Specifically, the Geilfine included the flaith-fine and four others closely related to the core, while the Deirbhfine, Tarfine, and Innfine each comprised four heads of families, creating broader circles of kinship. The rights and responsibilities of the fine extended with certainty but diminished in degree as the kinship circle expanded.

In course of time a large and increasing proportion of the good land became, under the titles so far described, limited private property. The area of arable land available for the common use of the clansmen was gradually diminished by these encroachments, but was still always substantial. A share of this was the birthright of every law-abiding member of the Feini who needed it. To satisfy this title and give a start in life to some young men who would otherwise have got none, this land was subject to Gabhailcine (= clan-resumption), meaning that the clan resumed the whole area at intervals of a few years for a fresh distribution after some occupants had died, and young men by attaining manhood had become entitled. Hence the Anglo-Irish word gavelkind. Anciently this re-distribution extended throughout the clan at the same time. Later it extended only to the land of a fine, each fine making its own distribution at its own time and in its own way as determined by the seventeen men above specified. In this distribution men might or might not receive again their former portions. In the latter case compensation was made for unexhausted improvements. This land could not be sold, nor even let except for a season in case of domestic necessity. The Feini who used it had no landlord and no rent to pay for this land, and could not be deprived of it except by the clan for a crime. They were subject only to public tributes and the ordinary obligations of free men. Presumably their homesteads were not on this land and were not subject to Gabhailcine. Neither were the unfenced and unappropriated common lands—waste, bog, forest and mountain—which all clansmen were free to use promiscuously at will.

Over time, a large and growing part of the good land became private property under the titles mentioned earlier. The amount of arable land available for shared use by the clansmen was gradually reduced by these encroachments, but it always remained significant. Every law-abiding member of the Feini who needed it had a birthright to a share of this land. To uphold this right and provide a start in life for some young men who otherwise wouldn’t have had one, this land was subject to Gabhailcine (clan-resumption), which meant that the clan would reclaim the entire area every few years for a new distribution after some occupants had passed away and young men, upon reaching adulthood, became entitled. This is where the Anglo-Irish term gavelkind comes from. Historically, this redistribution was done throughout the entire clan at once. Later, it applied only to the land of a fine, with each fine making its own distribution at its own time and in its own way, as determined by the seventeen men mentioned earlier. In this distribution, men might or might not receive their previous portions back. If they didn't, they were compensated for any unexhausted improvements. This land could not be sold or even rented out, except for a season in cases of necessity at home. The Feini who used it had no landlord and didn't have to pay rent for the land, and they could only be deprived of it by the clan for committing a crime. They were only obligated to public tributes and the usual responsibilities of free men. Presumably, their homes were not located on this land and were not subject to Gabhailcine. The unfenced and unclaimed common lands—such as waste, bog, forest, and mountain—were also available for all clansmen to use freely whenever they wanted.

There was hardly any selling and little letting of land in ancient times. Flaiths and other persons holding large areas let to clansmen, who then became Ceiles, not land, but the privilege of feeding upon land a number of cattle specified by agreement. Flaiths and Bo-aires also let cattle to a ceile who had none or not enough, and this was the most prevalent practice. There were two distinct methods of letting and hiring—saer (= free) and daer (= base), the conditions being fundamentally different. The conditions of saer-tenure were largely settled by the law, were comparatively easy, did not require any security to be given, left the ceile free within the limits of justice to end the connexion, left him competent in case of dispute to give evidence against that of the flaith, and did not impose any liability on the fine of the ceile. By continued user of the same land for some years and discharge of the public obligations in respect of it in addition to the ciss or payment as tenant, a ceile became a sub-owner or permanent tenant and could not be evicted. There is no provision in these laws for evicting any one. For the hire of cattle a usual payment was one beast in seven per annum for seven years; after which the cattle that remained became the property of the hirer. A saer-ceile on growing wealthy might become a bo-aire. Daer-tenure, whether of cattle or of the right to graze cattle upon land, was subject to a ciss-ninsciss (= wearisome tribute), for the payment of which security had to be given. A man not in the enjoyment of full civil rights, if able to find security, could become a daer-ceile. A free clansman by becoming a daer-ceile lowered his own status and that of his fine, became incompetent to give evidence against that of a flaith, and could not end the connexion until the end of the term except by a large payment. The members of his fine were liable, in the degree of their relationship, to make good out of their own property any default in the payments. Hence this tenure could not be legally entered into by a free clansman without the permission of his fine. Daer-ceiles were also exposed to casual burdens, like that of lodging and feeding soldiers when in their district. All payments were made in kind. When the particular kind was not specified by the law or by agreement, the payments were made according to convenience in horses, cattle, sheep, pigs, wool, butter, bacon, corn, vegetables, yarn, dye-plants, leather, cloth, articles of use or ornament, &c. As the clan system relaxed, and the fine lost its legal power of fixing the amounts of public tributes, which were similarly payable to the flaith, and neglected its duty of seeing that those tributes were duly applied, the flaith became able to increase these tributes with little check, to confuse them with rent, to confuse jurisdiction with ownership, and to exalt himself at the expense of his fellow-clansmen. A flaith by arranging that his tenants should make their payments at different periods of the year, secured a constant and copious supply without an inconvenient surplus.

There was almost no selling and very little renting of land in ancient times. Flaiths and others with large areas allowed clansmen to use the land, who then became Ceiles, not in terms of owning land, but having the right to feed a specified number of cattle on that land as agreed. Flaiths and Bo-aires also lent cattle to a ceile who either had none or not enough, which was the most common practice. There were two different methods of renting and hiring—saer (free) and daer (base), with fundamentally different conditions. The terms of saer-tenure were mostly set by law, were relatively easy, did not require any security, allowed the ceile to end the connection within the limits of justice, permitted him to testify in disputes against the flaith, and did not impose any liability on the fine of the ceile. By continuously using the same land for several years and fulfilling public obligations, in addition to the ciss or payment as a tenant, a ceile became a sub-owner or permanent tenant and could not be evicted. These laws included no provisions for eviction. For cattle rental, a common payment was one beast in seven per year for seven years; after that, the remaining cattle became the property of the hirer. A wealthy saer-ceile could become a bo-aire. Daer-tenure, whether for cattle or the right to graze on land, was subject to a ciss-ninsciss (wearisome tribute), for which security had to be provided. A man without full civil rights could become a daer-ceile if he could find security. A free clansman who became a daer-ceile lowered both his own status and that of his fine, could not provide evidence against a flaith, and could not end the relationship until the term was up unless he made a large payment. The members of his fine were responsible, based on their kinship, to cover any missed payments from their property. Therefore, a free clansman could not legally enter into this tenure without the permission of his fine. Daer-ceiles were also subject to unexpected obligations, like accommodating and feeding soldiers in their area. All payments were made in kind. When a specific type was not mentioned by law or agreement, payments were made based on convenience in horses, cattle, sheep, pigs, wool, butter, bacon, corn, vegetables, yarn, dye plants, leather, cloth, or items of use or decoration, etc. As the clan system weakened, and the fine lost its legal authority to determine public tributes payable to the flaith, it neglected its responsibility to ensure those tributes were properly used. This allowed the flaith to raise these tributes with little oversight, blur the lines between rent and tribute, confuse jurisdiction with ownership, and elevate himself at the expense of his fellow clansmen. A flaith could arrange for his tenants to make payments at different times of the year, ensuring a steady and plentiful supply without an inconvenient surplus.

People who did not belong to the clan and were not citizens were in a base condition and incompetent to appear in court in suit or defence except through a freeman. The Bothach (= cottier) and the Sen-clèithe (= old dependent) were people who, though living for successive generations attached to the families of flaiths, did not belong to the clan and had no rights of 490 citizenship. Fuidhirs, or manual labourers without property, were the lowest section of the population. Some were born in this condition, some clansmen were depressed into it by crime, consequences of war or other misfortune; and strangers of a low class coming into the territory found their level in it. The fuidhirs also were divided into saer and daer; the former being free by industry and thrift to acquire some property, after which five of them could club together to acquire rights corresponding to those of one freeman. The daer-fuidhirs were tramps, fugitives, captives, &c.

People who weren't part of the clan and weren't citizens were in a lowly state and couldn't appear in court to sue or defend themselves unless they went through a freeman. The Bothach (cottier) and the Sen-clèithe (old dependent) were people who, although living for many generations attached to the families of flaiths, didn't belong to the clan and had no citizenship rights. Fuidhirs, or manual laborers without property, were the lowest tier of the population. Some were born into this situation, while some clansmen fell into it due to crime, the consequences of war, or other misfortunes; and outsider low-class individuals coming into the area found themselves in this same position. The fuidhirs were also divided into saer and daer; the former were free to work hard and save up for some property, after which five of them could come together to gain rights equal to those of one freeman. The daer-fuidhirs were vagrants, fugitives, captives, etc.

Fosterage, the custom of sending children to be reared and educated in the families of fellow-clansmen, was so prevalent, especially among the wealthy classes, and the laws governing it are so elaborate and occupied such a large space, that some mention of it here is inevitable. Beyond mention, there is little to be said, owing to the absence of general principles in an infinity of specific details, mostly domestic and apparently trivial. A child in fosterage was reared and educated suitably for the position it was destined to fill in life. There was fosterage for affection, for payment and for a literary education. Fosterage began when the child was a year old and ended when the marriageable age was reached, unless previously terminated by death or crime. Every fostered person was under an obligation to provide, if necessary, for the old age of foster-parents. The affection arising from this relationship was usually greater, and was regarded as more sacred than that of blood relationship.

Fosterage, the practice of sending children to be raised and educated in the homes of members of their clan, was very common, especially among wealthy families. The laws surrounding it were so detailed and extensive that mentioning it here is unavoidable. However, there’s not much more to say due to a lack of overarching principles among countless specific instances, which were mostly about everyday life and seemed trivial. A child in fosterage was raised and educated according to the role they were expected to take on in adulthood. There were different types of fosterage: for affection, for payment, and for a focused education. Fosterage started when the child was one year old and continued until they reached a marriageable age, unless it was cut short by death or crime. Every fostered individual was expected to care for their foster-parents in their old age if needed. The bond formed from this relationship was typically stronger and considered more sacred than that of biological ties.

The solidarity of clan and fine in their respective spheres, the provisions of the system, the simple rural life, and the prevalence of barter and payments in kind, left comparatively little occasion for contracts between individuals. Consequently the rules relating to contract are not very numerous. They are, however, sufficiently solemn. No contract affecting land was valid unless made with the consent of the fine and in the presence of the Aire-Forgaill. Contracts relating to other kinds of property are more numerous. When important or involving a considerable amount, they had to be made in the presence of a flaith or magistrate. The Aire-Coisring presided over most of the contracts of the common people. The parties to a contract should be free citizens, of full age, sound mind, free to contract or not, and under no legal disability. “The world would be in a state of confusion if express contracts were not binding.” From the repeated correlative dicta that “nothing is due without deserving,” and that a thing done “for God’s sake,” i.e. gratis, imposed little obligation, it is clear that the importance of valuable consideration was fully recognized. So also was the importance of time. “To be asleep avails no one”; “Sloth takes away a man’s welfare.” Contracts made by the following persons were invalid: (1) a servant without his master’s authority; (2) a monk without authority from his abbot or manager of temporalities; (3) a son subject to his father without the father’s authority; (4) an infant, lunatic, or “one who had not the full vigilance of reason”; (5) a wife in relation to her husband’s property without his authority. She was free to hold and deal with property of her own and bind it by contract. If a son living with his father entered into a contract with his father’s knowledge, the father was held to have ratified the contract unless he promptly repudiated it. “One is held to adopt what he does not repudiate after knowledge, having the power.” Contract of sale or barter with warranty could be dissolved for fraud, provided action was taken within a limited time after the fraud had become known. Treaties and occasional very important contracts were made “blood-covenants” and inviolable by drawing a drop of blood from the little finger of each of the contracting parties, blending this with water, and both drinking the mixture out of the same cup. The forms of legal evidence were pledges, documents, witnesses and oaths. In cases of special importance the pledges were human beings, “hostage sureties.” These were treated as in their own homes according to the rank to which they belonged, and were discharged on the performance of the contract. If the contract was broken, they became prisoners and might be fettered or made to work as slaves until the obligation was satisfied. Authentic documents were considered good evidence. A witness was in all cases important, and in some essential to the validity of a contract. His status affected the force of the contract as well as the value of his evidence; and the laws appear to imply that by becoming a witness, a man incurred liabilities as a surety. The pre-Christian oath might be by one or more of the elements, powers or phenomena of nature, as the sun, moon, water, night, day, sea, land. The Christian oath might be on a copy of the Gospels, a saint’s crozier, relic or other holy thing.

The solidarity of the clan and fine in their different areas, the system's rules, the simple rural lifestyle, and the common practice of bartering and making payments in kind left little room for contracts between individuals. As a result, the rules concerning contracts aren’t very numerous, but they are quite serious. No contract involving land was valid unless it was agreed to by the fine and witnessed by the Aire-Forgaill. There are more contracts related to other kinds of property. If they were significant or involved a large amount, they had to be created in front of a flaith or magistrate. The Aire-Coisring oversaw most contracts among common people. The parties involved in a contract should be free citizens, of legal age, mentally sound, able to agree or disagree, and not under any legal disability. “The world would be in chaos if express contracts weren’t binding.” From the consistent principle that “nothing is owed without deserving it,” and that a thing done “for God’s sake,” meaning free of charge, carried little obligation, it’s evident that the significance of valuable consideration was fully recognized. The importance of timing was acknowledged too. “Being asleep helps no one”; “Laziness takes away a person’s wellbeing.” Contracts made by the following individuals were invalid: (1) a servant without their master's permission; (2) a monk without authorization from their abbot or financial manager; (3) a son under his father's authority without his father’s consent; (4) a minor, someone insane, or “one who lacks full mental alertness”; (5) a wife regarding her husband’s property without his consent. She was free to own and manage her own property and bind it by contract. If a son living with his father entered into a contract with the father's knowledge, the father was seen as having approved the contract unless he quickly rejected it. “One is assumed to accept what he doesn’t renounce after knowing, having the power.” A sale or barter contract with a warranty could be canceled for fraud if action was taken within a limited time after the fraud was discovered. Treaties and some very important contracts were considered “blood-covenants” and inviolable by drawing a drop of blood from the little finger of each party, mixing it with water, and both drinking the mixture from the same cup. The types of legal evidence included pledges, documents, witnesses, and oaths. In particularly important cases, the pledges could be people, “hostage sureties.” These individuals were treated as if they were at home according to their rank and were released once the contract was fulfilled. If the contract was broken, they became prisoners and could be shackled or forced to work as slaves until the obligation was met. Authentic documents were viewed as valid evidence. A witness was always significant, and in some cases essential for a contract's validity. Their status influenced the contract's strength as well as the value of their testimony; and the laws suggest that by being a witness, a person accepted liabilities as a surety. The pre-Christian oath could involve one or more of the elements, powers, or phenomena of nature, like the sun, moon, water, night, day, sea, or land. The Christian oath could be made on a copy of the Gospels, a saint’s crozier, relics, or other holy items.

These laws recognized crime, but in the same calm and deliberate way in which they recognized contract and other things seriously affecting the people. Although we find in the poems of Dubhthach, written in the 5th century and prefixed to the Senchus Mór, the sentences, “Let every one die who kills a human being,” and “Every living person that inflicts death shall suffer death,” capital punishment did not prevail in Ireland before or after. The laws uniformly discountenanced revenge, retaliation, the punishment of one crime by another, and permitted capital punishment only in the last resort and in ultimate default of every other form of redress. They contain elaborate provision for dealing with crime, but the standpoint from which it is regarded and treated is essentially different from ours. The state, for all its elaborate structure, did not assume jurisdiction in relation to any crimes except political ones, such as treason or the disturbance of a large assembly. For these it inflicted the severest penalties known to the law—banishment, confiscation of property, death or putting out of eyes. A crime against the person, character or property of an individual or family was regarded as a thing for which reparation should be made, but the individual or family had to seek the reparation by a personal action. This differed from a civil action only in the terms employed and the elements used in calculating the amount of the reparation. The function of a judge in a criminal as in a civil action was to see that the facts, with modifying circumstances, were fully and truly submitted to him, and then by applying the law to these facts to ascertain and declare the amount of compensation that would make a legal adjustment. For this amount the guilty person, and in his default his kindred, became legally debtor, and the injured person or family became entitled to recover the amount like a civil debt by distraint, if not paid voluntarily. There were no police, sheriffs or public prisons. The decisions of the law were executed by the persons concerned, supported by a highly organized and disciplined public opinion springing from honour and interest and inherent in the solidarity of the clan. There is good reason to believe that the system was as effectual in the prevention and punishment of crime and in the redress of wrongs as any other human contrivance has ever been.

These laws recognized crime, but in a calm and thoughtful way, just like they did with contracts and other serious issues affecting the people. Although in the poems of Dubhthach, written in the 5th century and prefixed to the Senchus Mór, we find statements like, “Let everyone who kills a human being be put to death,” and “Anyone who causes death shall face death,” capital punishment was not common in Ireland, either before or after. The laws consistently discouraged revenge and retaliation, treating one crime as a way to punish another, and allowed capital punishment only as a last resort when no other form of justice was possible. They outlined detailed procedures for addressing crime, but the perspective from which it was viewed and handled was fundamentally different from ours. The state, despite its complex structure, only intervened in political crimes, like treason or disrupting a large gathering. For these offenses, it imposed the harshest penalties available—banishment, confiscation of property, death, or blinding. A crime against a person, reputation, or property of an individual or family was seen as something that required restitution, but the individual or family had to pursue that restitution through personal action. This was different from a civil action only in the terminology used and the factors considered in calculating the restitution amount. The role of a judge in both criminal and civil actions was to ensure that the relevant facts, along with any mitigating circumstances, were accurately presented to him and then to apply the law to these facts to determine and announce the amount of compensation needed for legal resolution. For this amount, the guilty party—and if they failed, their family—became legally obligated, while the injured person or family was entitled to recover that amount like any civil debt through distress if not paid voluntarily. There were no police, sheriffs, or public prisons. The enforcement of the law was carried out by the involved parties, supported by a well-organized and disciplined public opinion rooted in honor, interest, and the solidarity of the clan. There is good reason to believe this system was as effective in preventing and punishing crime and in providing redress for wrongs as any other human system has ever been.

In calculating the amount of compensation the most characteristic and important element was Einechlan (= honour-price, honour-value), a value attaching to every free person, varying in amount from one cow to thirty cows according to rank. It was the assessed value of status or caput. It was frequently of consequence in relation to contracts and other clan affairs; but it emerges most clearly in connexion with crime. By the commission of crime, breach of contract, or other disgraceful or injurious conduct, Einechlan was diminished or destroyed, a capitis diminutio occurred, apart from any other punishment. Though existing apart from fine, Einechlan was the first element in almost every fine. Dire was the commonest word for fine, whether great or small. Eric (= reparation, redemption) was the fine for “separating body from soul”; but the term was used in lighter cases also. In capital cases the word sometimes meant Einechlan, sometimes coirp-dire (= body-fine), but most correctly the sum of these two. It may be taken that, subject to modifying circumstances, a person guilty of homicide had to pay (i) coirp-dire for the destruction of life, irrespective of rank; (2) the honour-value of the victim; (3) his own honour-value if the deed was unintentional; and (4) double his own honour-value if committed with malice aforethought. The sum of these was in all cases heavy; heaviest when the parties were wealthy. The amount was recoverable as a debt from the criminal to the extent of his 491 property, and in his default from the members of his fine in sums determined by the degree of relationship; and it was distributable among the members of the fine of a murdered person in the same proportions, like a distribution among the next of kin. The fine of a murderer could free themselves from liability by giving up the murderer and his goods, or if he escaped, by giving up any goods he had left, depriving him of clanship, and lodging a pledge against his future misdeeds. In these circumstances the law held the criminal’s life forfeit, and he might be slain or taken as a prisoner or slave. He could escape only by becoming a daer-fuidhir in some distant territory. When the effect of a crime did not go beyond an individual, if that individual’s fine did not make good their claim while the criminal lived, it lapsed on his death. “The crime dies with the criminal.” If an unknown stranger or person without property caught red-handed in the commission of a crime refused to submit to arrest, it was lawful to maim or slay him according to the magnitude of the attempted crime. “A person who came to inflict a wound on the body may be safely killed when unknown and without a name, and when there is no power to arrest him at the time of committing the trespass.” For crimes against property the usual penalty, as in breach of contract, was generic restitution, the quantity, subject to modifying circumstances, being twice the amount taken or destroyed.

In calculating compensation, the most characteristic and important element was Einechlan (honor-price, honor-value), a value assigned to every free person, ranging from one cow to thirty cows depending on rank. It represented the assessed value of status or caput. This value became particularly significant in relation to contracts and clan matters, but it was most evident in relation to crime. When a crime was committed, or a contract was breached, or any disgraceful or harmful act took place, Einechlan was reduced or lost, leading to a capitis diminutio, separate from any other punishment. Though distinct from fines, Einechlan was the primary component of almost every fine. Dire was the most common term for a fine, whether large or small. Eric (reparation, redemption) referred to the fine for "separating body from soul," though it was also used in less serious cases. In serious cases, the term sometimes meant Einechlan and sometimes coirp-dire (body-fine), but most accurately the sum of the two. Generally, a person guilty of homicide had to pay (1) coirp-dire for the loss of life, regardless of rank; (2) the honor-value of the victim; (3) their own honor-value if the act was unintentional; and (4) double their own honor-value if it was premeditated. The total amount was always substantial, especially when the parties involved were wealthy. The amount was recoverable as a debt from the criminal, up to the extent of their property, and if they couldn't pay, from their fine members, based on their degree of relationship; it was then distributed among the deceased person's fine members like a distribution among next of kin. The fine of a murderer could absolve themselves of liability by surrendering the murderer along with their belongings, or if the murderer fled, by surrendering any remaining property, which would strip the murderer of their clan status and serve as a pledge against future offenses. In such cases, the law considered the criminal's life forfeit, allowing them to be killed or taken as a prisoner or slave. They could only escape by becoming a daer-fuidhir in a distant place. If the crime affected only an individual, and if that individual's fine couldn’t claim compensation while the criminal was alive, it became void upon their death. “The crime dies with the criminal.” If an unknown stranger or someone without property was caught in the act of a crime and refused arrest, it was lawful to injure or kill them depending on the severity of the crime. “A person who attempts to inflict harm on another can be safely killed if they are unknown and nameless, and if it’s impossible to arrest them at the moment of the offense.” For property crimes, the typical penalty, similar to breach of contract, was generic restitution, the amount, subject to changing factors, being double the value of what was taken or destroyed.

Distress of seizure of property being the universal mode of obtaining satisfaction, whether for crime, breach of contract, non-payment of debt, or any other cause, the law of distress came into operation as the solvent of almost every dispute. Hence it is the most extensive and important branch, if not more than a branch, of these ancient laws. Of several words meaning distress, athgabail was the most frequently used. A person having a liquidated claim might either sue a debtor or proceed at his peril to seize without this preliminary. In the latter case the defendant could stop the progress of the seizure by paying the debt, giving a pledge, or demanding a trial; and he then could choose a Brehon. Distress was of two kinds—(1) athgabal ar fut (= distress on length, i.e. with time, with delays); and (2) athgabail tulla (= immediate distress). Which method was pursued depended partly upon the facts of the case and partly upon the respective ranks of the parties. A person entitled to seize property had to do it himself, accompanied, if the amount was large, by a law agent and witnesses. No man was entitled to seize unless he owned, or had a surety who owned, sufficient property for indemnity or adjustment in case the seizure should be found to have been wrongful. The formalities varied in different circumstances and also at different times in the long ages in which these laws prevailed. Some forms may, in the Irish as in other legal systems, have become merely ceremonial and fictitious.

The distress from seizing property is the common way to achieve satisfaction, whether due to crime, breach of contract, non-payment of debt, or other reasons. Therefore, the law of distress became a solution for almost every conflict. It stands as the most extensive and significant part of these ancient laws. Among several terms for distress, athgabail was the most commonly used. A person with a liquidated claim could either sue the debtor or risk seizing the property without this prior step. In the latter situation, the defendant could halt the seizure by paying the debt, offering a guarantee, or asking for a trial; they could then select a Brehon. There were two types of distress—(1) athgabal ar fut (distress on length, meaning with time and delays); and (2) athgabail tulla (immediate distress). The method chosen depended on the specifics of the case and the ranks of the parties involved. A person authorized to seize property had to do it themselves, accompanied, if the amount was substantial, by a law agent and witnesses. No one was entitled to seize unless they personally owned, or had a guarantor who owned, enough property to cover any compensation or adjustments if the seizure was found to be wrongful. The formalities changed based on different circumstances and evolved over the long ages that these laws were in effect. Some procedures may have, in Irish and other legal systems, turned into mere ceremonial practices.

Tellach (= seizure of immovable property) was made in three periods or delays of ten days each (= 30 days). The first step was a notice that unless the debt was paid immediately seizure would be made. Ten days later, the plaintiff crossed the fence in upon the land, with a law agent, a witness and a pair of horses yoked or harnessed, and in a loud voice stated the amount of the debt and called upon the defendant to pay it according to law. On receiving no answer, or an unsatisfactory one, he withdrew. After an interval of ten days more, the creditor entered with his law agent, two witnesses and four horses, went farther in upon the land, repeated his demand, and if refused withdrew. Finally, after a further interval of ten days, he entered once more with his law agent, three witnesses and eight horses, drove up to the debtor’s house, repeated his demand, and if not satisfied drove a herd of cattle or a flock of sheep in upon the farm and left men to care for them.

Tellach (seizure of property) happened in three phases, each lasting ten days (for a total of 30 days). The first step was a notice stating that if the debt wasn't paid right away, the property would be seized. Ten days later, the plaintiff entered the property with a lawyer, a witness, and a pair of horses, and loudly announced the amount of the debt, asking the defendant to pay it according to the law. If there was no response or an unsatisfactory one, he would leave. After another ten days, the creditor returned with his lawyer, two witnesses, and four horses, went further onto the land, repeated his demand, and left if it was refused. Finally, after another ten-day interval, he came back with his lawyer, three witnesses, and eight horses, drove up to the debtor's house, restated his demand, and if it was still unsatisfied, he would drive a herd of cattle or a flock of sheep onto the property and leave people to take care of them.

Athgabail ordinarily meant the seizure of movable property. The following technical terms will indicate the procedure in distress with time:—Aurfocre (= demand of payment, stating the amount in presence of witnesses); apad (= delay); athgabail (= the actual seizure); anad (= delay after seizure, the thing remaining in the debtor’s possession); toxal (= the taking away of the thing seized); fasc (= notice to the debtor of the amount due, the mainder or pound in which the thing seized is impounded, and the name of the law agent); dithim (= delay during which the thing is in pound); lobad (= destruction or forfeiture of the debtor’s ownership and substitution of the creditor’s ownership). There was no sale, because sale for money was little known. The property in the thing seized, to the amount of the debt and expenses, became legally transferred from the debtor to the creditor, not all at once but in stages fixed by law. A creditor was not at liberty to seize household goods, farming utensils, or any goods the loss of which would prevent the debtor recovering from embarrassment, so long as there was other property which could be seized. A seizure could be made only between sunrise and sunset. “If a man who is sued evades justice, knowing the debt to be due of him, double the debt is payable by him and a fine of five seds.” When a large debt was clearly due, and there was no property to seize, the debtor himself could be seized and compelled to work as a prisoner or slave until the debt was paid.

Athgabail typically referred to the taking of movable property. The following technical terms will outline the process in distress with time:—Aurfocre (= demand for payment, specifying the amount in front of witnesses); apad (= delay); athgabail (= the actual seizure); anad (= delay after seizure, with the item remaining in the debtor’s possession); toxal (= the removal of the seized item); fasc (= notice to the debtor of the amount owed, the mainder or pound where the seized item is held, and the name of the attorney); dithim (= delay while the item is in pound); lobad (= destruction or loss of the debtor’s ownership, with the creditor’s ownership taking its place). There was no sale, as selling for money was uncommon. The ownership of the seized property, up to the amount of the debt and expenses, was legally transferred from the debtor to the creditor, but not all at once—this happened in stages set by law. A creditor couldn’t seize household items, farming tools, or any goods that the debtor needed to recover from financial trouble, as long as there was other property available for seizure. A seizure could only occur between sunrise and sunset. “If a person being sued avoids justice, knowing they owe the debt, they must pay double the debt and a fine of five seds.” When a significant debt was clearly due and there were no assets to seize, the debtor could be seized themselves and forced to work as a prisoner or slave until the debt was settled.

When a defendant was of rank superior to that of the plaintiff, distress had to be preceded by troscad (= fasting). This is a legal process unknown elsewhere except in parts of India. The plaintiff having made his demand and waited a certain time without result, went and sat without food before the door of the defendant. To refuse to submit to fasting was considered indelibly disgraceful, and was one of the things which legally degraded a man by reducing or destroying his honour-value. The law said “he who does not give a pledge to fasting is an evader of all; he who disregards all things shall not be paid by God or man.” If a plaintiff having duly fasted did not receive within a certain time the satisfaction of his claim, he was entitled to distrain as in the case of an ordinary defendant, and to seize double the amount that would have satisfied him in the first instance. If a person fasting in accordance with law died during or in consequence of the fast, the person fasted upon was held guilty of murder. Fasting could be stopped by paying the debt, giving a pledge, or submitting to the decision of a Brehon. A creditor fasting after a reasonable offer of settlement had been made to him forfeited his claim. “He who fasts notwithstanding the offer of what should be accorded to him, forfeits his legal right according to the decision of the Feini.”

When a defendant held a higher rank than the plaintiff, the plaintiff had to fast before taking action. This practice was unique and mostly found only in some parts of India. After making a demand and waiting a while without a response, the plaintiff would sit without food in front of the defendant's door. Ignoring the fast was seen as deeply shameful and could ruin a person's honor. The law stated, “Anyone who doesn’t agree to fast is avoiding responsibility; those who disregard all matters will not receive anything from God or man.” If a plaintiff had properly fasted and still did not get a response within a certain time, he could seize the goods like any other defendant and claim double what he initially sought. If someone fasting lawfully died during or because of the fast, the person they were fasting against would be considered guilty of murder. The fast could end if the debt was paid, a pledge was given, or a Brehon’s decision was accepted. If a creditor continued to fast after a reasonable offer to settle was made, they lost their claim. “Anyone who fasts despite being offered what is due will lose their legal right according to the decision of the Feini.”

Authorities.—Since Sir Samuel Ferguson wrote his article on “Brehon Laws” in the 9th edition of this Encyclopaedia, much research has been done on the subject, and Ferguson’s account is no longer accepted by scholars, either as regards the language or the substance of the laws. Pending the work of a second Brehon Law Commission, the Laws are best studied in the six imperfect volumes (Ancient Laws of Ireland, 1865-1901) produced by the first Commission (ignoring their long and worthless introductions), together with, Dr. Whitley Stokes’s Criticism (London, Nutt, 1903) of Atkinson’s Glossary (Dublin, 1901). The following are important references (kindly supplied by Dr Whitley Stokes) for detailed research:— R. Dareste, Études d’histoire de droit, pp. 356-381 (Paris, 1889); Arbois de Jubainville and Paul Collinet, Études sur le droit celtique (2 vols., Paris, 1895); Joyce, Social History of Ancient Ireland, vol. i. pp. 168-214 (2 vols., London, 1903); Zeitschrift für celtische Philologie, iv. 221, the Copenhagen fragments of the Laws (Halle, 1903); important letters in The Academy, Nos. 699, 700, 701, 702, 703, 704, 706, 707 (substantially covered by Stokes’s Criticism); Revue Celtique, xxv. 344; Erin, i. 209-315 (collation by Kuno Meyer of the Law-tract Crith Gablach); Maine’s Early Hist, of Institutions (1875) and Early Law and Custom, pp. 162, 180 (1883); Hearn’s Aryan Household (1879), and Maclennan’s Studies in Ancient History, pp. 453-507 (1876), contain interesting general reference, but the writers were not themselves original students of the laws. L. Ginnell’s Brehon Laws (1894) may also be consulted. See further the article Celt, sections Language and Literature.

Authorities.—Since Sir Samuel Ferguson wrote his article on “Brehon Laws” in the 9th edition of this Encyclopaedia, there has been a lot of research on the topic, and Ferguson’s account is no longer accepted by scholars, both in terms of the language and the content of the laws. Until a second Brehon Law Commission is formed, the Laws are best studied in the six incomplete volumes (Ancient Laws of Ireland, 1865-1901) produced by the first Commission (disregarding their lengthy and unhelpful introductions), along with Dr. Whitley Stokes's Criticism (London, Nutt, 1903) of Atkinson’s Glossary (Dublin, 1901). Here are some important references (generously provided by Dr. Whitley Stokes) for in-depth research:—R. Dareste, Études d’histoire de droit, pp. 356-381 (Paris, 1889); Arbois de Jubainville and Paul Collinet, Études sur le droit celtique (2 vols., Paris, 1895); Joyce, Social History of Ancient Ireland, vol. i. pp. 168-214 (2 vols., London, 1903); Zeitschrift für celtische Philologie, iv. 221, the Copenhagen fragments of the Laws (Halle, 1903); significant letters in The Academy, Nos. 699, 700, 701, 702, 703, 704, 706, 707 (largely addressed by Stokes’s Criticism); Revue Celtique, xxv. 344; Erin, i. 209-315 (collated by Kuno Meyer of the Law-tract Crith Gablach); Maine’s Early Hist, of Institutions (1875) and Early Law and Custom, pp. 162, 180 (1883); Hearn’s Aryan Household (1879), and Maclennan’s Studies in Ancient History, pp. 453-507 (1876) contain interesting general references, but the authors were not original researchers of the laws themselves. L. Ginnell’s Brehon Laws (1894) may also be useful. For more information, see the article Celt, sections Language and Literature.

(L. G.)

BREISACH, or Altbreisach, a town of Germany, in the grand duchy of Baden, on the left bank of the Rhine, standing on a basalt rock 250 ft. above the river, 10 m. W. of Freiburg-im-Breisgau, and on the railway connecting that city with Colmar. Pop. (1900) 3537. It has a fine minster, partly Romanesque, partly Gothic, dating from the 10th to the 15th centuries; of its two principal towers one is 13th century Gothic, the other Romanesque. The interior is remarkable for its rich decorations, especially the wood-carving of the high altar, and for many interesting tombs and pictures. There is little industry, but a considerable trade is done in wines and other agricultural 492 produce. On the opposite bank of the Rhine, here crossed by a railway bridge, lies the little town of Neubreisach and the fort Mortier.

BREISACH, or Old Breisach, is a town in Germany, located in the grand duchy of Baden, on the left bank of the Rhine. It sits on a basalt rock 250 ft. above the river, 10 miles west of Freiburg-im-Breisgau, and is situated on the railway line that connects that city with Colmar. The population in 1900 was 3,537. The town has a beautiful minster, which is partly Romanesque and partly Gothic, dating from the 10th to the 15th centuries. Of its two main towers, one is a Gothic structure from the 13th century, and the other is Romanesque. The interior is notable for its rich decorations, especially the wood carvings of the high altar, along with many interesting tombs and artworks. There isn't much industry here, but there is a significant trade in wines and other agricultural produce. On the opposite bank of the Rhine, connected by a railway bridge, lies the small town of Neubreisach and the fort Mortier.

Breisach (Brisiacum), formerly an imperial city and until the middle of the 18th century one of the chief fortresses of the Empire, is of great antiquity. A stronghold of the Sequani (a Gallic tribe, which occupied the country of the Doubs and Burgundy), it was captured in the time of Julius Caesar by Ariovistus and became known as the Mons Brisiacus. Fortified by the emperor Valentian in 369 to defend the Rhine against the Germans, it retained its position throughout the middle ages as one of the chief bulwarks of Germany and was called the “cushion and key (Kissen und Schlussel) of the German empire.” Its importance was such that it gave its name to the district Breisgau, in which it is situated. In 939 it was taken by the emperor Otto I., and after remaining in the exclusive possession of the emperors for two centuries, was strengthened and shared for a while between them and the bishops of Basel. In 1254 and 1262 the bishops obtained full control over it; but in 1275 it was made an imperial city by King Rudolph I., and at the beginning of the 14th century his son brought it definitively into the possession of the Habsburg monarchs, leaving the bishops but few privileges. In the Thirty Years’ War Breisach successfully resisted the Swedes, but after a memorable siege and a defence by General von Reisach, one of the most famous in military annals, it was forced to capitulate to Duke Bernhard of Saxe-Weimar on the 18th of December 1638. The endeavours of the emperor Ferdinand III. to retake it were fruitless, and by the peace of Westphalia (1648) Breisach was annexed to France. By the peace of Ryswick (1697) it was restored to Austria, when Louis XIV. built the town and fortress of Neubreisach on the left bank of the Rhine. Again in 1703 it fell into the hands of the French, owing to treachery, but was ceded to Austria by the peace of Rastatt (1714)—Yet again, in the War of the Austrian Succession, it was captured (1744) by the French, who dismantled the fortifications. They refortified it in 1796, and after passing, by the peace of Lunéville (1801), together with the Breisgau to the duke of Modena, Breisach was by the peace of Pressburg (1805) finally incorporated with Baden, when the fortifications were razed. During the Franco-German War (1870) Breisach suffered severely from bombardment directed against it from Neubreisach.

Breisach (Brisiacum), once an imperial city and until the mid-18th century one of the main fortresses of the Empire, has a long history. It was a stronghold of the Sequani (a Gallic tribe that inhabited the region of Doubs and Burgundy) and was captured during Julius Caesar's time by Ariovistus, becoming known as Mons Brisiacus. The emperor Valentin fortified it in 369 to protect the Rhine from the Germans, and it maintained its status throughout the Middle Ages as a key defense for Germany, earning the nickname “cushion and key (Kissen und Schlussel) of the German empire.” Its significance was so great that it gave its name to the surrounding area, Breisgau. In 939, it was seized by Emperor Otto I, and after being exclusively held by the emperors for two centuries, it was further fortified and briefly shared with the bishops of Basel. In 1254 and 1262, the bishops gained full control, but in 1275 King Rudolph I declared it an imperial city, and by the early 14th century, his son permanently transferred control to the Habsburgs, leaving the bishops with few privileges. During the Thirty Years' War, Breisach successfully withstood attacks from the Swedes, but after a notable siege and a defense led by General von Reisach—one of the most celebrated in military history—it was forced to surrender to Duke Bernhard of Saxe-Weimar on December 18, 1638. Efforts by Emperor Ferdinand III. to reclaim it were unsuccessful, and by the Peace of Westphalia (1648), Breisach was annexed by France. The Peace of Ryswick (1697) returned it to Austria, during which Louis XIV. built the town and fortress of Neubreisach on the left bank of the Rhine. In 1703, it again fell to the French due to betrayal but was ceded to Austria by the Peace of Rastatt (1714). Once more, in the War of the Austrian Succession, it was captured (1744) by the French, who dismantled its fortifications. They rebuilt the defenses in 1796, and after being transferred, along with Breisgau, to the duke of Modena by the Peace of Lunéville (1801), Breisach was finally incorporated into Baden with the Peace of Pressburg (1805), when the fortifications were demolished. During the Franco-German War (1870), Breisach faced heavy bombardment from Neubreisach.


BREISGAU, a district of Germany, in the grand duchy of Baden. It extends along the right bank of the Rhine from Basel to Kehl, and includes the principal peaks of the southern Black Forest and the Freiburg valley. The Breisgau, originally a pagus or gau of the Frankish empire, was ruled during the middle ages by hereditary counts. Of these the earliest recorded is Birtilo (962-995), ancestor of the counts and dukes of Zähringen. On the death of Berchthold V. of Zähringen in 1218, his coheiresses brought parts of the Breisgau to the counts of Urach and Kyburg, while part went to the margraves of Baden. At the close of the 13th century the Kyburg part of the Breisgau passed to the Habsburgs, who in 1368 acquired also the town and countship of Freiburg, which had been sold by the counts of Urach to the Freiburgers and given in pledge by them to the house of Austria in exchange for a loan of the purchase price, which they were unable to repay. The male Urach line becoming extinct in 1457, an heiress carried what remained of their possessions in the Breisgau to the house of Baden. In the struggle between France and Austria from the 17th century onwards the Breisgau frequently changed masters. In 1801 Austria was forced to cede it to Ercole III., duke of Modena, in compensation for the duchy of which Napoleon had deprived him. His successor Ferdinand took the title of duke of Modena-Breisgau, but on his death in 1805 the Breisgau was divided between Baden and Württemberg. The latter ceded its portion to Baden in 1810.

BREISGAU, is a district in Germany, located in the grand duchy of Baden. It stretches along the right bank of the Rhine from Basel to Kehl, and includes the main peaks of the southern Black Forest and the Freiburg valley. The Breisgau, originally a pagus or gau of the Frankish empire, was governed during the Middle Ages by hereditary counts. The first recorded count is Birtilo (962-995), the ancestor of the counts and dukes of Zähringen. After the death of Berchthold V. of Zähringen in 1218, his coheiresses divided parts of the Breisgau between the counts of Urach and Kyburg, while another part went to the margraves of Baden. By the end of the 13th century, the Kyburg portion of the Breisgau came under the control of the Habsburgs, who in 1368 also acquired the town and countship of Freiburg, which had been sold by the counts of Urach to the Freiburg residents and pledged by them to the House of Austria in exchange for a loan to cover the purchase price they couldn’t repay. The male line of Urach became extinct in 1457, and an heiress transferred what remained of their lands in the Breisgau to the House of Baden. During the conflict between France and Austria from the 17th century onward, the Breisgau frequently changed rulers. In 1801, Austria had to cede it to Ercole III., duke of Modena, as compensation for the duchy Napoleon had taken from him. His successor, Ferdinand, took the title of duke of Modena-Breisgau, but after his death in 1805, the Breisgau was split between Baden and Württemberg. The latter ceded its share to Baden in 1810.

See Stokvis, Manuel d’histoire, &c. (Leiden, 1890-1893).

See Stokvis, Manuel d’histoire, &c. (Leiden, 1890-1893).


BREISLAK, SCIPIONE (1748-1826), Italian geologist of German parentage, was born at Rome in 1748. He early distinguished himself as professor of mathematical and mechanical philosophy in the college of Ragusa; but after residing there for several years he returned to his native city, where he became a professor in the Collegio Nazareno, and began to form the fine mineralogical cabinet in that institution. His leisure was dedicated to geological researches in the papal states. His account of the aluminous district of Tolfa and adjacent hills, published in 1786, gained for him the notice of the king of Naples, who invited him to inspect the mines and similar works in that kingdom, and appointed him professor of mineralogy to the royal artillery. The vast works for the refining of sulphur in the volcanic district of Solfatara were erected under his direction. He afterwards made many journeys through the ancient Campania to illustrate its geology, and published in 1798 his Topografia fisica della Campania, which contains the results of much accurate observation. Breislak also published an essay on the physical condition of the seven hills of Rome, which he regarded as the remains of a local volcano,—an opinion shown to be erroneous by the later researches of G.B. Brocchi. The political convulsions of Italy in 1799 brought Breislak to Paris, where he remained until 1802, when, being appointed inspector of the saltpetre and powder manufactories near Milan, he removed to that city. The mineral Breislakite was named after him. He died on the 15th of February 1826. His other publications include:—Introduzione alla geologia (1811, French ed. 1819); Traité sur la structure extérieure du globe, 3 vols. and atlas (Milan, 1818, 1822); Descrizione geologica della provincia di Milano (1822).

BREISLAK, SCIPIONE (1748-1826), an Italian geologist of German descent, was born in Rome in 1748. He quickly made a name for himself as a professor of mathematical and mechanical philosophy at the college in Ragusa; however, after a few years, he returned to his hometown, where he became a professor at the Collegio Nazareno and started creating an impressive mineral collection for that institution. In his free time, he focused on geological research in the papal states. His report on the aluminum-rich region of Tolfa and nearby hills, published in 1786, caught the attention of the king of Naples, who invited him to explore mines and similar projects in the kingdom and appointed him the professor of mineralogy for the royal artillery. The extensive facilities for refining sulfur in the volcanic area of Solfatara were built under his supervision. He later traveled extensively through ancient Campania to study its geology and published his work Topografia fisica della Campania in 1798, which included the results of careful observations. Breislak also wrote an essay on the physical characteristics of the seven hills of Rome, which he thought were remnants of a local volcano—an idea that was later proven incorrect by G.B. Brocchi's research. The political turmoil in Italy during 1799 led Breislak to Paris, where he stayed until 1802, when he was appointed to inspect saltpeter and gunpowder factories near Milan, prompting his move to that city. The mineral Breislakite was named in his honor. He passed away on February 15, 1826. His other publications include:—Introduzione alla geologia (1811, French edition 1819); Traité sur la structure extérieure du globe, 3 vols. and atlas (Milan, 1818, 1822); Descrizione geologica della provincia di Milano (1822).


BREITENFELD, a village of Germany in the kingdom of Saxony, 5½ m. N.N.W. of Leipzig, noted in military history. The first battle of Breitenfeld was fought on the 17th of September 1631, between the allied Swedish and Saxon armies under Gustavus Adolphus and the imperial forces under Count Tilly. The battlefield is a low ridge running east and west between the villages of Göbschelwitz and Breitenfeld, the position of the Imperialists lying along the crest from Göbschelwitz on the right to a point about 1 m. short of Breitenfeld on the left; opposite this position, and behind a group of villages on the Loberbach stream, lay the Swedish forces, flanked on their left by the Saxon contingent under the elector, who was assisted by Arnim. The villages formed the only obstacle on the gentle slope lying between the Loberbach and Tilly’s line; through these villages the Swedes defiled slowly, and formed up on the open ground beyond them. Tilly’s army was drawn up in a continuous line, the infantry ranged in heavy battalions in the centre, the cavalry on the wings, and the heavy artillery in a mass in front of the infantry. Gustavus arrayed the Swedes in two lines and a reserve, infantry in the centre, cavalry on the flanks, and the Saxons were drawn up in a similar formation on the left of the Swedish left-wing cavalry. So far as can be gauged the respective numbers were at least 32,000 Imperialists, 22,000 Swedes and 15,000 Saxons. The Swedish infantry was drawn up on an entirely novel system; each brigade of infantry, composed of several battalions, was formed in many small and handy corps of pikemen and musketeers, and parties of musketeers were also detached to support the cavalry. The guns were scattered along the front. The Saxons were ranged, like Tilly’s army, in heavy masses of foot and horse preceded by a great battery of guns. At 2 P.M. Pappenheim, commanding Tilly’s left wing, led forward the whole of his cavalry in a furious charge. Feeling the fire of the musketeers who were intercalated amongst the Swedish horse, Pappenheim swung round to his left and charged the Swedish right wing in flank. The Swedes of both lines promptly wheeled up, and after a prolonged conflict the Imperial horse were driven completely off the field. The attack of Tilly’s right wing under Fürstenberg directed against the Saxons was more successful. The Saxons were at once broken and routed, only a handful under Arnim maintaining the ground. Fürstenberg pursued the fugitives for many miles, and Tilly with the centre of infantry (which, considering the depth of its formations, must have possessed great manoeuvring power) rapidly followed him and formed up opposite the now exposed left of the Swedes. Thereupon the Swedes, in their light and handy formation, changed position rapidly and easily to meet him. Tilly’s attack 493 was strenuously opposed, and at this moment the decisive stroke of the battle was delivered by the Swedish right wing, which, having disposed of Pappenheim, swung round and occupied the ground originally held by the Imperial infantry, seized Tilly’s guns, and with them enfiladed the enemy’s new line. This put an end to the attack of the Imperial foot, and before sunset Tilly was in full retreat, hotly pursued and losing heavily in prisoners. His losses on the field have been estimated at 7000 killed and wounded and almost as many prisoners; the Swedes lost about 2000 and the Saxons over 4000 men.

BREITENFELD, a village in Germany in the kingdom of Saxony, located 5½ miles north-northwest of Leipzig, is notable in military history. The first battle of Breitenfeld took place on September 17, 1631, between the allied Swedish and Saxon armies under Gustavus Adolphus and the imperial forces led by Count Tilly. The battlefield is a low ridge extending east and west between the villages of Göbschelwitz and Breitenfeld. The Imperialists positioned themselves along the crest from Göbschelwitz on the right to about 1 mile short of Breitenfeld on the left; opposite them, behind a group of villages on the Loberbach stream, were the Swedish forces, with the Saxon contingent under the elector flanking their left, assisted by Arnim. The villages served as the only obstacle on the gentle slope between the Loberbach and Tilly’s line; the Swedes moved slowly through these villages and formed up on the open ground beyond. Tilly’s army was arranged in a continuous line, with infantry in heavy battalions in the center, cavalry on the wings, and heavy artillery massed in front of the infantry. Gustavus positioned the Swedes in two lines and a reserve, with infantry in the center, cavalry on the flanks, and the Saxons arrayed similarly on the left of the Swedish left-wing cavalry. Estimates suggest there were at least 32,000 Imperialists, 22,000 Swedes, and 15,000 Saxons. The Swedish infantry was organized using a completely new system; each brigade, made up of several battalions, formed small, flexible corps of pikemen and musketeers, with additional musketeers detached to support the cavalry. The guns were spread along the front. The Saxons were organized similarly to Tilly’s army, in large masses of infantry and cavalry backed by a significant battery of guns. At 2 PM, Pappenheim, commanding Tilly’s left wing, led all of his cavalry in a fierce charge. As they faced the fire from the musketeers mixed among the Swedish cavalry, Pappenheim turned to his left and charged the Swedish right wing from the side. The Swedes from both lines quickly adjusted and, after a prolonged skirmish, the Imperial cavalry was completely pushed off the field. The attack by Tilly’s right wing under Fürstenberg against the Saxons was more effective. The Saxons were quickly broken and routed, with only a small group under Arnim managing to hold their position. Fürstenberg chased the fleeing Saxons for many miles, and Tilly, with the center of his infantry (which, due to the depth of its formations, had significant maneuverability), swiftly followed him and set up opposite the now vulnerable left of the Swedes. In response, the Swedes swiftly and easily repositioned in their flexible formation to face him. Tilly’s attack 493 was met with strong resistance, and at that moment, the decisive blow of the battle was struck by the Swedish right wing, which, having dealt with Pappenheim, turned around and occupied the ground originally held by the Imperial infantry, capturing Tilly’s guns and using them to enfilade the enemy’s new line. This halted the assault by the Imperial infantry, and before sunset, Tilly was in full retreat, pursued fiercely and suffering heavy losses in prisoners. Estimates of his losses on the field are around 7,000 killed and wounded and nearly as many captured; the Swedes lost about 2,000, while the Saxons lost over 4,000 men.

The village of Breitenfeld also gives its name to another great battle in the Thirty Years’ War (November 2, 1642), in which the Swedes under Torstensson defeated the Imperialists under the archduke Leopold and Prince Piccolomini, who were seeking to relieve Leipzig. The Swedish cavalry decided the day on this occasion also.

The village of Breitenfeld is also famous for another major battle in the Thirty Years' War (November 2, 1642), where the Swedes, led by Torstensson, defeated the Imperialists commanded by Archduke Leopold and Prince Piccolomini, who were trying to relieve Leipzig. Once again, the Swedish cavalry turned the tide in their favor.


BREMEN, a free state in the German empire, bearing the title Freie Hansestadt Bremen. It falls into three distinct parts: (1) the largest portion, with the city of Bremen, lying on both banks, but chiefly on the right, of the lower course of the Weser, surrounded by the Prussian province of Hanover and the grand-duchy of Oldenburg, and consisting in the main of lowland country intersected by canals and dykes; (2) the town and district of Vegesack, lying separate from, but immediately north of the main portion, on the right bank of the river; (3) the port of Bremerhaven, 46 m. down the Weser, at its mouth. Of the whole territory, which has an area of 99 sq. m., about one-half is meadow and grazing land, one-quarter under tillage, and the remainder occupied by a little woodland, some unprofitable sandy wastes, the bed of the Weser and the towns. Market gardening, the rearing of cattle, for which the district is widely famed, and fishing, form the chief occupations of the rural population. The climate is mild, but the rainfall (26.9 in. annually on the average) is relatively considerable. The population is shown as follows:—

Bremen a free state in the German empire, known as Freie Hansestadt Bremen. It consists of three main parts: (1) the largest area, which includes the city of Bremen, located on both sides, but mostly on the right side, of the lower Weser River, surrounded by the Prussian province of Hanover and the grand-duchy of Oldenburg. This area is mostly flat land crossed by canals and dikes; (2) the town and district of Vegesack, located separately but just north of the main area, on the right bank of the river; (3) the port of Bremerhaven, 46 miles down the Weser at its mouth. The total territory covers 99 square miles, with about half being meadows and grazing land, one-quarter used for farming, and the rest made up of small woodlands, some unusable sandy areas, the river bed of the Weser, and the towns. The key activities of the rural population are market gardening, raising cattle (for which the area is well known), and fishing. The climate is mild, but there is a significant amount of rainfall, averaging 26.9 inches per year. The population is shown as follows:—

  1900 1905
Bremen, city 186,822 214,953
Vegesack 3,943 4,130
Bremerhaven 20,315 24,159
Rural districts 37,327 20,431
Total 248,407 263,673

Of the inhabitants, who belong to the Lower Saxon (Nieder-Sachsen) race and in daily intercourse mostly speak the Low German (Plattdeutsch) dialect, about two-thirds are natives of the state and one-third immigrants from other parts of Germany, chiefly from Hanover and Oldenburg. About 93% are Protestants, 6% Roman Catholics, and only ½% Jews. The form of government is that of a republic, under a constitution proclaimed on the 8th of March 1849, revised on the 21st of February 1854, the 17th of November 1875, and the 1st of January 1894. The sovereignty resides jointly in the senate and the Bürgerschaft, or Convent of Burgesses. The senate, which is the executive power, is composed of sixteen life members, elected by the convent, on presentation by the senate. Of these ten at least must be lawyers and three merchants. Two of the number are nominated by their colleagues as burgomasters, who preside in succession for a year at a time and hold office four years, one retiring every two years. The Bürgerschaft consists of 150 (formerly 300) representatives, chosen by the citizens for six years, and forms the legislative body. Fourteen members are elected by such citizens of Bremen (city) as have enjoyed a university education, forty by the merchants, twenty by the manufacturers and artisans, and forty-eight by the other citizens. Of the remaining representatives, twelve are furnished by Bremerhaven and Vegesack and sixteen by the rural districts. As a member of the German empire, the state of Bremen has one voice in the Bundesrat and returns one member to the Imperial diet (Reichstag). Formerly Bremen was a free port, but from the 1st of October 1888 the whole of the state, with the exception of two small free districts in Bremen and Bremerhaven respectively, joined the German customs union. The state has two Amtsgerichte (courts of first instance) at Bremen and Bremerhaven respectively, and a superior court, Landgericht, at Bremen, whence appeals lie to the Oberlandesgericht for the Hanseatic towns in Hamburg. The judges of the Bremen courts are appointed by a committee of members of the senate, the Bürgerschaft and the bench of judges. By the convention with Prussia of the 27th of June 1867, the free state surrendered its right to furnish its own contingent to the army, the recruits being after that time drafted into the Hanseatic infantry regiment, forming a portion of the Prussian IX. army corps.

Of the residents, who are part of the Lower Saxon (Nieder-Sachsen) ethnic group and primarily speak the Low German (Plattdeutsch) dialect in their daily interactions, about two-thirds are natives of the state and one-third are immigrants from other areas of Germany, mostly from Hanover and Oldenburg. Around 93% are Protestants, 6% are Roman Catholics, and only ½% are Jews. The government operates as a republic, under a constitution established on March 8, 1849, which was revised on February 21, 1854, November 17, 1875, and January 1, 1894. Sovereignty is shared between the senate and the Bürgerschaft, or Convent of Burgesses. The senate, which holds executive power, consists of sixteen life members elected by the convent on recommendation from the senate. At least ten of these members must be lawyers and three must be merchants. Two of them are nominated by their peers as burgomasters, who take turns presiding for one year at a time and serve a total of four years, with one burgomaster retiring every two years. The Bürgerschaft has 150 (formerly 300) representatives, elected by citizens for six years, and serves as the legislative body. Fourteen members are elected by Bremen (city) citizens with a university education, forty by merchants, twenty by manufacturers and artisans, and forty-eight by other citizens. Of the remaining representatives, twelve are provided by Bremerhaven and Vegesack and sixteen by the rural areas. As part of the German Empire, the state of Bremen has one vote in the Bundesrat and sends one member to the Imperial diet (Reichstag). Bremen was formerly a free port, but starting October 1, 1888, the entire state, except for two small free districts in Bremen and Bremerhaven, joined the German customs union. The state has two Amtsgerichte (courts of first instance) in Bremen and Bremerhaven, and a higher court, Landgericht, in Bremen, where appeals go to the Oberlandesgericht for the Hanseatic towns in Hamburg. Judges in Bremen's courts are appointed by a committee consisting of members from the senate, Bürgerschaft, and the bench of judges. Under the agreement with Prussia on June 27, 1867, the free state gave up its right to supply its own troops, and from then on recruits were drafted into the Hanseatic infantry regiment, a part of the Prussian IX army corps.


BREMEN, a city of Germany, capital of the free state of Bremen, and one of the Hanseatic towns. It lies on a sandy plain on both banks of the Weser, 46 m. from the North Sea and 71 m. S.W. from Hamburg by rail, on the mainline to Cologne. Pop. (1905) 214,953. It has also direct railway communication with Berlin via Uelzen, Hanover and Bremerhaven. The city consists of four quarters,—the old town (Altstadt) and its suburban extensions (Vorstadt) being on the right bank of the river, and the new town (Neustadt) with its southern suburb (Südervorstadt) on the left bank. The river is crossed by three bridges, the old, the new (1872-1875) Kaiserbrücke, and the railway bridge, with a gangway for foot passengers. The ramparts of the old town have long been converted into beautiful promenades and gardens, the moats forming a chain of lakes.

BREMEN, is a city in Germany, the capital of the free state of Bremen, and one of the Hanseatic towns. It sits on a sandy plain on both sides of the Weser River, 46 miles from the North Sea and 71 miles southwest of Hamburg by train, along the mainline to Cologne. The population in 1905 was 214,953. It also has direct train connections to Berlin via Uelzen, Hanover, and Bremerhaven. The city is made up of four districts—the old town (Altstadt) and its suburban extensions (Vorstadt) on the right bank of the river, and the new town (Neustadt) along with its southern suburb (Südervorstadt) on the left bank. The river is spanned by three bridges: the old bridge, the new Kaiserbrücke (built from 1872 to 1875), and a railway bridge with a footpath for pedestrians. The ramparts of the old town have long since been transformed into beautiful promenades and gardens, with the moats creating a series of lakes.

The romantic old town, with its winding streets and lanes, flanked by massive gabled houses, dates from the medieval days of Hanseatic prosperity. On the market square stands the fine town hall (Rathaus), dating from the 15th century, with a handsome Renaissance façade of a somewhat later date, and before it a stone statue of Roland, the emblem of civic power. Its celebrated underground wine cellar has been immortalized by Wilhelm Hauff in his Phantasien im Bremer Ratskeller. The town hall is internally richly embellished and has a gallery of interesting paintings. In an upper hall a model of an old Hanseatic frigate, with the device Navigare necesse est, vivere non est necesse, hangs from the ceiling. Among other ancient buildings, situated chiefly in the old town, are the following:—the cathedral of St Peter (formerly the archiepiscopal and now the Lutheran parish church), erected in the 12th century on the site of Charlemagne’s wooden church, and famous for its Bleikeller, or lead vault, in which bodies can be preserved for a long time without suffering decomposition; the church of St Ansgarius, built about 1243, with a spire 400 ft. high; the church of Our Lady, dating from the 12th and 13th centuries; the 12th century Romanesque church of St Stephen; the Schütting, or merchants’ hall, originally built in 1619 for the cloth-traders’ gild; the Stadthaus (town house), formerly the archiepiscopal palace, and converted to its present uses only in 1819. The most important and imposing among the more modern architectural additions to the city are the handsome Gothic exchange, completed in 1867, the municipal theatre, the municipal library, the post office (1878), the law courts (1891-1895), the wool exchange, the German bank, the municipal museum for natural science, ethnology and commerce, and the fine railway station (1888). The principal memorials embrace, besides the Roland, the Willehad fountain (1883), the monument of the Franco-German War (erected 1875), the centaur fountain (1891), an equestrian statue of the emperor William I. (1893), and a statue of the poet Theodor Körner. A beautiful park, Bürgerpark, has been laid out in the Bürgerweide, or meadows, lying beyond the railway station to the north-east of the city. It is a peculiarity of the domestic accommodation of Bremen that the majority of the houses, unlike the custom in most other German towns, where flats prevail, are occupied by a single family only.

The charming old town, with its winding streets and alleys lined by large gabled houses, dates back to the medieval era of Hanseatic wealth. In the market square stands the impressive town hall (Rathaus), built in the 15th century, featuring a beautiful Renaissance façade from a slightly later time, and in front of it is a stone statue of Roland, the symbol of civic authority. Its famous underground wine cellar has been made famous by Wilhelm Hauff in his Phantasien im Bremer Ratskeller. The town hall is richly decorated inside and has a gallery filled with interesting paintings. In an upper hall, a model of an old Hanseatic frigate hangs from the ceiling, adorned with the phrase Navigare necesse est, vivere non est necesse. Among other historic buildings primarily found in the old town are: the cathedral of St Peter (previously the archiepiscopal and now the Lutheran parish church), built in the 12th century on the site of Charlemagne's wooden church, renowned for its Bleikeller, or lead vault, where bodies can be preserved for long periods without decomposing; the church of St Ansgarius, constructed around 1243, with a 400 ft high spire; the church of Our Lady, dating from the 12th and 13th centuries; the Romanesque church of St Stephen from the 12th century; the Schütting, or merchants' hall, originally built in 1619 for the cloth traders' guild; the Stadthaus (town house), which was formerly the archiepiscopal palace and only converted to its current use in 1819. Among the most significant and grand modern architectural additions to the city are the beautiful Gothic exchange, completed in 1867, the municipal theatre, the municipal library, the post office (1878), the law courts (1891-1895), the wool exchange, the German bank, the municipal museum of natural science, ethnology, and commerce, and the lovely railway station (1888). Notable memorials include, in addition to Roland, the Willehad fountain (1883), the monument for the Franco-German War (erected in 1875), the centaur fountain (1891), an equestrian statue of Emperor William I. (1893), and a statue of the poet Theodor Körner. A beautiful park, Bürgerpark, has been created in the Bürgerweide, or meadows, lying beyond the railway station to the northeast of the city. One distinct feature of housing in Bremen is that most houses, unlike in many other German towns where apartments are common, are typically occupied by a single family.

The industries and manufactures of Bremen are of considerable variety and extent, but are more particularly developed in such branches as are closely allied to navigation, such as shipbuilding, founding, engine-building and rope-making. Next in importance come those of tobacco, snuff, cigars, the making of cigar boxes, jute-spinning, distilling, sugar refining and the shelling of rice. Bremen owes its fame almost exclusively to its transmaritime 494 trade, mainly imports. By the completion of the engineering works on the Weser in 1887-1899, whereby, among other improvements, the river was straightened and deepened, to 18 ft., large ocean-going vessels are able to steam right up to the city itself. It has excellent railway connexions with the chief industrial districts of Germany. Like Hamburg, it does predominantly a transit trade; it is especially important as the importer of raw products from America. In two articles, tobacco and rice, Bremen is the greatest market in the world; in cotton and indigo it takes the first place on the continent, and it is a serious rival of Hamburg and Antwerp in the import of wool and petroleum. The value of the total imports (both sea-borne and by river and rail) increased from £22,721,700 in 1883 to about £60,000,000 in 1905; the imports from the United States, from £9,755,000 in 1883 to about £25,000,000 in 1905. The countries from which imports principally come are the United States, England, Germany, Russia, the republics of South America, the Far East and Australia. The exports rose from a total of £26,096,500 in 1883 to £62,000,000 in 1905. The number of vessels which entered the ports of the free state (i.e. Bremen city, Bremerhaven and Vegesack) increased from 2869 of 1,258,529 aggregate tonnage in 1883, to 4024 of 2,716,633 tons in 1900. Bremen is the centre for some of the more important of the German shipping companies, especially of the North German Lloyd (founded in 1856), which, on the 1st of January 1905, possessed a fleet of 382 steamers of 693,892 tons, besides lighters and similar craft. Bremen also shares with Hamburg the position of being one of the two chief emigration ports of Germany. There are three docks, all to the north-west of the city—namely, the free harbour (which was opened in 1888), the winter harbour, and the timber and industrial harbour. Internal communication is served by an excellent system of electric tramways, and there is also a local steamboat service with neighbouring villages on the Weser.

The industries and manufacturing in Bremen are quite diverse and extensive, particularly in areas related to navigation, like shipbuilding, foundry work, engine manufacturing, and rope production. Following those, important sectors include tobacco, snuff, cigars, cigar box production, jute spinning, distilling, sugar refining, and rice shelling. Bremen's reputation largely comes from its maritime trade, especially imports. After the engineering improvements on the Weser between 1887 and 1899, which included straightening and deepening the river to 18 feet, large ocean-going vessels can now reach the city directly. The city has excellent railway connections with major industrial areas in Germany. Similar to Hamburg, Bremen primarily engages in transit trade and is a key importer of raw materials from America. In two categories—tobacco and rice—Bremen is the largest market globally; in cotton and indigo, it ranks first in continental Europe, and it competes with Hamburg and Antwerp in wool and petroleum imports. The total value of imports (by sea, river, and rail) rose from £22,721,700 in 1883 to about £60,000,000 in 1905; imports from the United States increased from £9,755,000 in 1883 to around £25,000,000 in 1905. The main countries supplying imports include the United States, England, Germany, Russia, South American republics, the Far East, and Australia. Exports grew from £26,096,500 in 1883 to £62,000,000 in 1905. The number of vessels entering the ports of the free state (that is, Bremen city, Bremerhaven, and Vegesack) rose from 2,869 with a total tonnage of 1,258,529 in 1883 to 4,024 with 2,716,633 tons in 1900. Bremen is a hub for several prominent German shipping companies, particularly the North German Lloyd (founded in 1856), which, as of January 1, 1905, had a fleet of 382 steamers totaling 693,892 tons, along with barges and similar vessels. Bremen, along with Hamburg, serves as one of Germany's two main emigration ports. There are three docks located northwest of the city: the free harbor (opened in 1888), the winter harbor, and the timber and industrial harbor. Internal transport is well-supported by a robust electric tram system, and there is also a local steamboat service connecting to nearby villages along the Weser.

History.—According to Brandes, quoting Martin Luther in the Lexicon Philologicum, the name is derived from Bram, Bräm, i.e. hem = the river-bank, or confine of the land on which it was built. In 787 Bremen was chosen by St Willehad, whom Charlemagne had established as bishop in the pagi of the lower Weser, as his see. In 848 the destruction of Hamburg by the Normans led to the transference of the archiepiscopal see of Hamburg to Bremen, which became the seat of the archbishops of Hamburg-Bremen. In 965 the emperor Otto I. granted to Archbishop Adaldag “in the place called Bremen” (in loco Bremun nuncupato) the right to establish a market, and the full administrative, fiscal and judicial powers of a count, no one but the bishop or his advocatus being allowed to exercise authority in the city. This privilege, by which the archbishop was lord of the city and his Vogt its judge, was frequently confirmed by subsequent emperors, ending under Frederick I. in 1158. Though, however, there is no direct evidence of the existence of any communal organization during this period, it is clear from the vigorous part taken by the burghers in the struggle of the emperor Frederick with Henry the Lion of Saxony that some such organization very early existed. Yet in the privilegium granted to the townspeople by Frederick I. in 1186 the emperor had done no more than guarantee them their personal liberties. The earliest recognition of any civic organization they may have possessed they owed to Archbishop Hartwig II. (1184-1207), who had succeeded in uniting against him his chapter, the nobles and the citizens; and the first mention of the city council occurs in a charter of Archbishop Gerhard II. in 1225, though the consules here named doubtless represented a considerably older institution. In the 13th century, however, whatever the civic organization of the townsfolk may have been, it was still strictly subordinate to the archbishop and his Vogt; the council could issue regulations only with the consent of the former, while in the judicial work of the latter, save in small questions of commercial dishonesty, its sole function was advisory. By the middle of the 14th century this situation was exactly reversed; the elected town council was the supreme legislative power in all criminal and civil causes, and in the court of the advocatus two Ratsmänner sat as assessors. The victory had been won over the archbishop; but a fresh peril had developed in the course of the 13th century in the growth of a patrician class, which, as in so many other cities, threatened to absorb all power into the hands of a close oligarchy. In 1304 the commonalty rose against the patricians and drove them from the city, and in the following year gained a victory over the exiles and their allies, the knights, which was long celebrated by an annual service of thanksgiving. This was the beginning of troubles that lasted intermittently throughout the century. Bremen had been admitted to the Hanseatic league in 1283, but was excluded in 1285, and not readmitted until 1358. Owing to the continued civic unrest it was again excluded in 1427, and only readmitted in 1433 when the old aristocratic constitution was definitively restored. But though in Bremen the efforts of the craftsmen’s “arts” to secure a share of power had been held in check and the gilds never gained any importance, the city government did not, as at Cologne and elsewhere, develop into a close patrician oligarchy. Power was in the hands of the wealthy, but the avenues to power were open to those who knew how to acquire the necessary qualification. There was thus no artificial restraint put upon individual enterprise, and the question of the government having been settled, Bremen rapidly developed in wealth and influence.

History.—According to Brandes, quoting Martin Luther in the Lexicon Philologicum, the name comes from Bram, Bräm, i.e. hem = the riverbank, or the border of the land where it was built. In 787, St. Willehad, appointed as bishop in the pagi of the lower Weser by Charlemagne, chose Bremen as his see. In 848, after the Normans destroyed Hamburg, the archiepiscopal see of Hamburg was moved to Bremen, which then became the seat of the archbishops of Hamburg-Bremen. In 965, Emperor Otto I granted Archbishop Adaldag the right to establish a market and all the administrative, fiscal, and judicial powers of a count “in the place called Bremen” (in loco Bremun nuncupato), allowing only the bishop or his advocatus to exercise authority in the city. This privilege, making the archbishop the lord of the city with his Vogt as its judge, was frequently confirmed by later emperors until it ended under Frederick I in 1158. While there is no direct evidence of any communal organization at this time, the active role of the burghers in Emperor Frederick's conflict with Henry the Lion of Saxony suggests such an organization likely existed early on. However, in the privilegium granted to the townspeople by Frederick I in 1186, he merely guaranteed their personal freedoms. The first acknowledgment of any civic organization came from Archbishop Hartwig II (1184-1207), who managed to unite his chapter, the nobles, and the citizens against him; the city council was first mentioned in a charter from Archbishop Gerhard II in 1225, indicating that the consules named probably represented a much older institution. In the 13th century, whatever civic organization existed was still strictly under the control of the archbishop and his Vogt; the council could only issue regulations with the archbishop's consent, and its role in the judicial decisions made by the Vogt was mainly advisory, except for minor issues related to commercial misconduct. By the mid-14th century, this dynamic flipped; the elected town council became the highest legislative authority in all criminal and civil matters, with two Ratsmänner sitting as assessors in the court of the advocatus. The archbishop's power had been overcome, but a new threat emerged in the 13th century with the rise of a patrician class, which, like in many other cities, aimed to centralize power within a small oligarchy. In 1304, the common people revolted against the patricians and expelled them from the city, winning a decisive victory over the exiles and their knightly allies the following year, celebrated annually with a service of thanksgiving. This marked the start of ongoing turmoil throughout the century. Bremen joined the Hanseatic League in 1283 but was expelled in 1285, only to be readmitted in 1358. Due to ongoing civic unrest, it was once again excluded in 1427 and only readmitted in 1433 when the old aristocratic constitution was reinstated. However, in Bremen, the efforts of the craftsman's “arts” to gain power were restrained, and the guilds never gained significant influence, preventing the city government from becoming a tightly-knit patrician oligarchy like in Cologne and elsewhere. Power was held by the wealthy, but pathways to influence remained open for anyone who could meet the necessary qualifications. Thus, there were no artificial limits on individual initiative, and with the governance issue settled, Bremen quickly grew in wealth and significance.

The Reformation was introduced into Bremen in 1522 by Heinrich von Zütphen. Archbishop Christopher of Brunswick-Wolfenbüttel (1487-1558), a brutal libertine, hated for his lusts and avarice, looked on the reforming movement as a revolt against himself. He succeeded in getting the reformer burned; but found himself involved in a life and death struggle with the city. In 1532 Bremen joined the league of Schmalkalden, and twice endured a siege by the imperial forces. In 1547 it was only saved by Mansfeld’s victory at Drakenburg. Archbishop Christopher was succeeded in 1558 by his brother Georg, bishop of Minden (d. 1566), who, though he himself was instrumental in introducing the reformed model into his other diocese of Verden, is reckoned as the last Roman Catholic archbishop of Bremen. His successor, Henry III. (1550-1585), a son of Duke Francis I. of Lauenburg, who had been bishop of Osnabrück and Paderborn, was a Lutheran and married. Protestantism was not, however, definitively proclaimed as the state religion in Bremen until 1618. The last archbishop, Frederick II. (of Denmark), was deposed by the Swedes in 1644. In 1646 Bremen received the privileges of a free imperial city from the emperor Ferdinand III.; but Sweden, whose possession of the archbishopric was recognized two years later, refused to consent to this, and in 1666 attempted vainly to assert her claims over the city by arms—in the so-called Bremen War. When, however, in 1720 the elector of Hanover (George I. of Great Britain) acquired the archbishopric, he recognized Bremen as a free city. In 1803 this was again recognized and the territory of the city was even extended. In 1806 it was taken by the French, was subsequently annexed by Napoleon to his empire, and from 1810 to 1813 was the capital of the department of the Mouths of the Weser. Restored to independence by the congress of Vienna in 1815, it subsequently became a member of the German Confederation, and in 1867 joined the new North German Confederation, with which it was merged in the new German empire.

The Reformation was brought to Bremen in 1522 by Heinrich von Zütphen. Archbishop Christopher of Brunswick-Wolfenbüttel (1487-1558), a ruthless libertine, was despised for his promiscuity and greed, and saw the reform movement as a rebellion against him. He managed to have the reformer executed, but found himself in a life-or-death battle with the city. In 1532, Bremen joined the Schmalkaldic League and faced two sieges by imperial forces. In 1547, it was only saved by Mansfeld’s victory at Drakenburg. Archbishop Christopher was succeeded in 1558 by his brother Georg, bishop of Minden (d. 1566), who, despite being key in bringing the reformed model to his other diocese in Verden, is considered the last Roman Catholic archbishop of Bremen. His successor, Henry III (1550-1585), the son of Duke Francis I of Lauenburg, who had been bishop of Osnabrück and Paderborn, was a Lutheran and married. However, Protestantism wasn't officially declared the state religion in Bremen until 1618. The last archbishop, Frederick II (of Denmark), was deposed by the Swedes in 1644. In 1646, Bremen was granted the privileges of a free imperial city by Emperor Ferdinand III; however, Sweden, which had its claim to the archbishopric recognized two years later, refused to accept this and attempted to assert its claims over the city by force in 1666 during the so-called Bremen War. However, in 1720, when the Elector of Hanover (George I of Great Britain) acquired the archbishopric, he acknowledged Bremen as a free city. In 1803, this status was reaffirmed, and the city’s territory was even expanded. In 1806, it was taken by the French, annexed by Napoleon into his empire, and from 1810 to 1813 served as the capital of the department of the Mouths of the Weser. After being restored to independence by the Congress of Vienna in 1815, it later became a member of the German Confederation, and in 1867 joined the new North German Confederation, which merged into the new German Empire.

See Buchenau, Die freie Hansestadt Bremen (3rd ed., Bremen, 1900, 5 vols.); Bremisches Urkundenbuch, edited by R. Ehmck and W. von Bippen (1863, fol.); W. von Bippen, Geschichte der Stadt Bremen (Bremen, 1892-1898); F. Donandt, Versuch einer Geschichte des bremischen Stadtrechts (Bremen, 1830, 2 vols.); Bremisches Jahrbuch (historical, 19 vols., 1864-1900); and Karl Hegel, Städte und Gilden, vol. ii. p. 461 (Leipzig, 1891).

See Buchenau, Die freie Hansestadt Bremen (3rd ed., Bremen, 1900, 5 vols.); Bremisches Urkundenbuch, edited by R. Ehmck and W. von Bippen (1863, fol.); W. von Bippen, Geschichte der Stadt Bremen (Bremen, 1892-1898); F. Donandt, Versuch einer Geschichte des bremischen Stadtrechts (Bremen, 1830, 2 vols.); Bremisches Jahrbuch (historical, 19 vols., 1864-1900); and Karl Hegel, Städte und Gilden, vol. ii. p. 461 (Leipzig, 1891).


BREMER, FREDRIKA (1801-1865), Swedish novelist, was born near Åbo, in Finland, on the 17th of August 1801. Her father, a descendant of an old German family, a wealthy iron master and merchant, left Finland when Fredrika was three years old, and after a year’s residence in Stockholm, purchased an estate at Årsta, about 20 m. from the capital. There, with occasional visits to Stockholm and to a neighbouring estate, which belonged for a time to her father, Fredrika passed her time till 1820. The education to which she and her sisters were subjected 495 was unusually strict; Fredrika’s health began to give way; and in 1821 the family set out for the south of France. They travelled slowly by way of Germany and Switzerland, and returned by Paris and the Netherlands. It was shortly after this time that Miss Bremer became acquainted with Schiller’s works, which made a very deep impression on her. She had begun to write verses from the age of eight, and in 1828 she succeeded in finding a publisher for the first volume of her Teckningar ur hvardagslifvet (1828), which at once attracted attention. The second volume (1831), containing one of her best tales, Familjen H., gave decisive evidence that a real novelist had been found in Sweden. The Swedish Academy awarded her their smaller gold medal, and she increased her reputation by Presidentens döttrar (1834), Grannarne (1837) and others. Her father had died in 1830, and her life was thereafter regulated in accordance with her own wishes and tastes. She lived for some years in Norway with a friend, after whose death she travelled in the autumn of 1849 to America, and after spending nearly two years there returned through England. The admirable translations (1846, &c.) of her works by Mary Howitt, which had been received with even greater eagerness in America and England than in Sweden, secured for her a warm and kindly reception. Her impressions of America, Hemmen i nya verlden, were published in 1853-1854, and at once translated into English. After her return Miss Bremer devoted herself to her scheme for the advancement and emancipation of women. Her views on these questions were expounded in her later novels—Hertha (1856) and Far och dotter (1858). Miss Bremer organized a society of ladies in Stockholm for the purpose of visiting the prisons, and during the cholera started a society, the object of which was the care of children left orphans by the epidemic. She devoted herself to other philanthropic and social schemes, and gradually abandoned her earlier simple and charming type of story for novels directed to the furtherance of her views. In these she was less successful. In 1856 she again travelled, and spent five years on the continent and in Palestine. Her reminiscences of these countries have all been translated into English. On her return she settled at Årsta, where, with the exception of a visit to Germany, she spent the remaining years of her life. She died on the 31st of December 1865.

BREMER, FREDRIKA (1801-1865), Swedish novelist, was born near Åbo, Finland, on August 17, 1801. Her father, a descendant of an old German family, was a wealthy iron master and merchant who left Finland when Fredrika was three years old. After living in Stockholm for a year, he bought an estate at Årsta, about 20 miles from the capital. There, with occasional trips to Stockholm and a neighboring estate that belonged to her father for a time, Fredrika spent her days until 1820. The education she and her sisters received was unusually strict; Fredrika’s health began to decline, and in 1821 the family traveled to the south of France. They took a slow route through Germany and Switzerland, returning via Paris and the Netherlands. It was shortly after this trip that Miss Bremer became familiar with Schiller’s works, which greatly impacted her. She had started writing poetry at the age of eight, and in 1828 she found a publisher for the first volume of her Teckningar ur hvardagslifvet (1828), which immediately caught attention. The second volume (1831), featuring one of her best stories, Familjen H., proved that a true novelist had emerged in Sweden. The Swedish Academy awarded her their smaller gold medal, and she further enhanced her reputation with Presidentens döttrar (1834), Grannarne (1837), and others. Her father passed away in 1830, and from then on, her life was shaped by her own desires and preferences. She lived for several years in Norway with a friend, and after that friend’s death, she traveled to America in the autumn of 1849 and returned through England after nearly two years. The excellent translations (1846, &c.) of her works by Mary Howitt received an even warmer welcome in America and England than in Sweden, earning her a warm reception. Her observations of America, Hemmen i nya verlden, were published in 1853-1854 and quickly translated into English. After her return, Miss Bremer focused on her plans for the empowerment and emancipation of women. Her opinions on these matters were expressed in her later novels—Hertha (1856) and Far och dotter (1858). Miss Bremer established a society of women in Stockholm to visit prisons, and during the cholera outbreak, she initiated a society aimed at caring for children orphaned by the epidemic. She dedicated herself to other charitable and social initiatives, gradually moving away from her earlier simple and charming style of storytelling to novels that furthered her views. In these, she was less successful. In 1856, she traveled again, spending five years in Europe and Palestine. Her recollections of these countries have all been translated into English. Upon her return, she settled at Årsta, where, except for a visit to Germany, she spent the remaining years of her life. She died on December 31, 1865.

See Life, Letters and Posthumous Works of F. Bremer, by her sister, Charlotte Bremer, translated by F. Milow, London, 1868. A selection of her works in 6 vols. appeared at Örebro, 1868-1872.

See Life, Letters and Posthumous Works of F. Bremer, by her sister, Charlotte Bremer, translated by F. Milow, London, 1868. A selection of her works in 6 vols. appeared at Örebro, 1868-1872.


BREMERHAVEN, a seaport town of Germany, in the free state of Bremen, on the right bank and estuary of the Weser, at the confluence of the Geeste, 38 m. N. of the city of Bremen by rail. Pop. (1895) 18,366; (1905) 24,159. It is built on a tract of territory ceded to Bremen by Hanover in 1826, and further increased by treaty with Prussia in 1869. It forms practically a single town with Geestemünde (Prussia), which lies across the Geeste and with which it is connected by a drawbridge. The port was opened in 1830, and besides an excellent harbour, there are three large wet docks, including the Kaiserhafen, enlarged in 1897-1899 at a cost of £900,000. This, together with the north portion of the Neuerhafen, constitutes the free harbour. Here are the workshops and dry docks of the North German Lloyd steamship company. The whole internal harbour system is furnished with powerful hydraulic cranes and lines of railway running alongside the quays. The entrance to the port is free from ice nearly all the year round, is excellently buoyed, and lighted by two lightships and eight lighthouses, among the latter the remarkable Rothesand Leuchtturm, erected 1884-1885. The Hanoverian fort and batteries, which formerly protected the town, have been removed, and their place is supplied by four modern forts, with revolving turtleback turrets, lower down. The town possesses two Protestant and a Roman Catholic church, a technical institute, a natural history museum, a library, a theatre, a monument to the emperor William I. and one to Johann Smidt (1773-1859), the burgomaster of Bremen to whose enterprise the harbour of Bremerhaven is due. Shipbuilding and kindred industries are carried on.

BREMERHAVEN, is a seaport town in Germany, part of the free state of Bremen, located on the right bank of the Weser River at its estuary, where it meets the Geeste River, 38 miles north of Bremen by rail. Population (1895) was 18,366; (1905) was 24,159. It was established on land ceded to Bremen by Hanover in 1826, and further expanded through a treaty with Prussia in 1869. It essentially merges with Geestemünde (Prussia), located across the Geeste River, which is joined by a drawbridge. The port opened in 1830 and features an excellent harbor along with three large wet docks, including the Kaiserhafen, which was expanded between 1897 and 1899 at a cost of £900,000. Together with the northern part of the Neuerhafen, this forms the free harbor. The North German Lloyd steamship company's workshops and dry docks are located here. The entire internal harbor system is equipped with powerful hydraulic cranes and railway lines running alongside the quays. The entrance to the port is ice-free for most of the year, is well-marked with buoys, and is lit by two lightships and eight lighthouses, including the notable Rothesand Leuchtturm, built between 1884 and 1885. The Hanoverian fort and batteries that once defended the town have been removed, replaced by four modern forts with rotating turtleback turrets set further downstream. The town has two Protestant churches and one Roman Catholic church, a technical institute, a natural history museum, a library, a theater, and monuments dedicated to Emperor William I and Johann Smidt (1773-1859), the burgomaster of Bremen whose efforts led to the creation of the harbor in Bremerhaven. Shipbuilding and related industries are active here.


BRENDAN, Brandon, or Brandan (c. 484-578), Irish saint and hero of a legendary voyage in the Atlantic, is said to have been born at Tralee in Kerry in A.D. 484. The Irish form of his name is Brennain, the Latin Brendanus. Medieval historians usually call him Brendan of Clonfert, or Brendan son of Finnloga, to distinguish him from his contemporary, St Brendan of Birr (573). Little is known of the historical Brendan, who died in 578 as abbot of a Benedictine monastery which he had founded twenty years previously at Clonfert in eastern Galway. The story of his voyage across the Atlantic to the “Promised Land of the Saints,” afterwards designated “St Brendan’s Island,” ranks among the most celebrated of the medieval sagas of western Europe. Its traditional date is 565-573. The legend is found, in prose or verse and with many variations, in Latin, French, English, Saxon, Flemish, Irish, Welsh, Breton and Scottish Gaelic. Although it does not occur in the writings of any Arabian geographer, several of its incidents—such as the landing on a whale in mistake for an island—belong also to Arabic folk-literature. Many of Brendan’s fabulous adventures seem to be borrowed from the half-pagan Irish saga of Maelduin or Maeldune, and others belong also to Scandinavian mythology. The oldest extant version of the legend is the 11th century Navigatio Brendani.

BRENDAN, Brandon, or Brandan (c. 484-578), is an Irish saint and the hero of a legendary journey across the Atlantic. He is believed to have been born in Tralee, Kerry, in CE 484. The Irish version of his name is Brennain, and in Latin, it's Brendanus. Medieval historians often refer to him as Brendan of Clonfert or Brendan son of Finnloga to set him apart from his contemporary, St Brendan of Birr (573). Not much is known about the historical Brendan, who passed away in 578 as the abbot of a Benedictine monastery he founded two decades earlier at Clonfert in eastern Galway. His tale of sailing across the Atlantic to the “Promised Land of the Saints,” later known as “St Brendan’s Island,” is considered one of the most famous medieval sagas in western Europe. This journey is traditionally dated between 565 and 573. The legend exists in various forms, both prose and verse, with many variations in languages including Latin, French, English, Saxon, Flemish, Irish, Welsh, Breton, and Scottish Gaelic. Although it isn’t mentioned in the work of any Arabian geographer, several events—like landing on a whale mistakenly thought to be an island—are also part of Arabic folk literature. Many of Brendan’s incredible adventures appear to be drawn from the semi-pagan Irish saga of Maelduin or Maeldune, and others are related to Scandinavian mythology. The oldest surviving version of the legend is the 11th century Navigatio Brendani.

St Brendan’s island was long accepted as a reality by geographers. In a Venetian map dated 1367, in the anonymous Weimar map of 1424, and in B. Beccario’s map of 1435, it is identified with Madeira. Columbus, in his journal for the 9th of August 1492, states that the inhabitants of Hierro, Gomera and Madeira had seen the island in the west; and Martin Behaim, in the globe he made at Nuremberg in the same year, places it west of the Canaries and near the equator. During the 16th century the progress of exploration in these latitudes compelled many cartographers to locate the island elsewhere; and it was marked about 100 m. west of Ireland, or afterwards among the West Indies. But in Spain and Portugal the older belief as to its situation was maintained. In 1526 an expedition under Fernando Alvarez left Grand Canary in search of St Brendan’s island, which had again been reported as seen by many trustworthy witnesses. In 1570 an official inquiry was held, and a second expedition undertaken, by Fernando de Villalobos, governor of Palma. Similar voyages of discovery were made by the Canarians in 1604 and 1721; and only in 1759 was the apparition of St Brendan’s island explained as an effect of mirage.

St. Brendan’s island was widely recognized as a real place by geographers. In a Venetian map from 1367, in the anonymous Weimar map of 1424, and in B. Beccario’s map of 1435, it is marked as Madeira. Columbus, in his journal from August 9, 1492, mentions that the people of Hierro, Gomera, and Madeira had seen the island to the west; and Martin Behaim, in the globe he created in Nuremberg that same year, placed it west of the Canary Islands and near the equator. Throughout the 16th century, the advancement of exploration in these areas led many mapmakers to locate the island differently; it was indicated about 100 miles west of Ireland, or later among the West Indies. However, in Spain and Portugal, the earlier belief about its location was still held. In 1526, an expedition led by Fernando Alvarez set out from Grand Canary in search of St. Brendan’s island, which had once again been reported as seen by many credible witnesses. In 1570, an official investigation was conducted, and a second expedition was launched by Fernando de Villalobos, governor of Palma. Similar exploration voyages were undertaken by the Canarians in 1604 and 1721; and it wasn't until 1759 that the appearance of St. Brendan’s island was explained as a mirage.

Among the numerous books which deal with the legend, the following are important: Die altfranzösische Prosaübersetzung von Brendans Meerfahrt, by C. Wahlund (Upsala, 1900); La “Navigatio Sancti Brendani” in antico Veneziano, by F. Novati (Bergamo, 1892); Zur Brendanus-Legende, &c., by G. Schirmer (Leipzig, 1888); Les Voyages merveilleux de St. Brendan, &c., by F. Michel (Paris, 1878); and Acta Sancti Brendani.... Original Latin Documents connected with the Life of St Brendan, by P.F. Moran (Dublin, 1872).

Among the many books about the legend, the following are significant: Die altfranzösische Prosaübersetzung von Brendans Meerfahrt, by C. Wahlund (Upsala, 1900); La “Navigatio Sancti Brendani” in antico Veneziano, by F. Novati (Bergamo, 1892); Zur Brendanus-Legende, &c., by G. Schirmer (Leipzig, 1888); Les Voyages merveilleux de St. Brendan, &c., by F. Michel (Paris, 1878); and Acta Sancti Brendani.... Original Latin Documents connected with the Life of St Brendan, by P.F. Moran (Dublin, 1872).


BRENHAM, a city and the county-seat of Washington county, Texas, U.S.A., situated in the S.E. part of the state, about 68 m. N.W. of Houston. Pop. (1890) 5209; (1900) 5968, including 2701 negroes and 531 foreign-born; (1910) 4718. Brenham is served by the Gulf, Colorado & Santa Fé (controlled by the Atchison, Topeka & Santa Fé) and the Houston & Texas Central railways. It is the seat of Blinn Memorial College (German Methodist Episcopal), opened as “Mission Institute” in 1883, and renamed in 1889 in honour of the Rev. Christian Blinn, of New York, a liberal benefactor; of Brenham Evangelical Lutheran College, and of a German-American institute (1898). The municipality owns and operates the waterworks. The city is situated in an agricultural and cotton-raising region, and has cotton compresses and gins, cotton mills, cotton-seed oil refineries, foundries and machine shops, and furniture and wagon factories. Brenham was settled about 1844, was incorporated in 1866, and was chartered as a city in 1873.

BRENHAM, is a city and the county seat of Washington County, Texas, U.S.A., located in the southeast part of the state, about 68 miles northwest of Houston. Population: (1890) 5,209; (1900) 5,968, including 2,701 African Americans and 531 foreign-born individuals; (1910) 4,718. Brenham is served by the Gulf, Colorado & Santa Fé (which is controlled by the Atchison, Topeka & Santa Fé) and the Houston & Texas Central railways. It is home to Blinn Memorial College (German Methodist Episcopal), which was established as the "Mission Institute" in 1883 and renamed in 1889 in honor of Rev. Christian Blinn from New York, a generous supporter; Brenham Evangelical Lutheran College; and a German-American institute (founded in 1898). The city owns and operates its waterworks. Brenham is situated in an agricultural area known for cotton farming, with cotton compresses and gins, cotton mills, cottonseed oil refineries, foundries and machine shops, and furniture and wagon factories. Brenham was settled around 1844, incorporated in 1866, and chartered as a city in 1873.


BRENNER PASS, the lowest (4495 ft.) and one of the most frequented passes across the Alps in all ages, though the name itself rarely occurs in the middle ages, the route over it being said to lie through “the valley of Trent.” It may be described as the great gate of Italy, and by it most of the Teutonic tribes made their way to Italy. One reason of its importance is that 496 many side passes in the end join this great thoroughfare. It was crossed no fewer than 66 times by various emperors, between 793 and 1402. A carriage road was constructed over it as far back as 1772, while the railway over it was built in 1864-1867. From Innsbruck to the summit of the pass is a distance by rail of 25 m. The line then descends through the Eisack valley past Brixen (34 m.) to Botzen (24 m.). Thence it follows the valley of the Adige to Trent (35 m.) and on to Verona (56½ m.)—in all 174½ m. by rail from Innsbruck to Verona.

BRENNER PASS, is the lowest (4495 ft.) and one of the most popular routes across the Alps throughout history, although the name itself rarely appeared in the Middle Ages, with the route often referred to as going through “the valley of Trent.” It can be seen as the main entrance to Italy, and most of the Germanic tribes traveled through it to reach Italy. One of the reasons it's significant is that many side passes ultimately connect to this major roadway. It was crossed no fewer than 66 times by various emperors from 793 to 1402. A carriage road was built over it back in 1772, and the railway was constructed between 1864 and 1867. The distance from Innsbruck to the summit of the pass is 25 miles by rail. The line then descends through the Eisack Valley, passing Brixen (34 miles) to Botzen (24 miles). From there, it continues along the Adige Valley to Trent (35 miles) and on to Verona (56½ miles)—totaling 174½ miles by rail from Innsbruck to Verona.

(W. A. B. C.)

BRENNUS, the name, or perhaps the official title, of two chiefs of the Celtic Gauls.

BRENNUS, is the name, or possibly the official title, of two leaders of the Celtic Gauls.

(1) The first Brennus crossed the Apennines in 391 B.C., ravaged Etruria, and annihilated a Roman army of about 40,000 men on the Allia some 12 m. from Clusium (July 16, 390). Rome thus lay at his mercy, but he wasted time, and the Romans were able to occupy and provision the Capitol (though they had not sufficient forces to defend their walls) and to send their women and children to Veii. When on the third day the Gauls took possession, they found the city occupied only by those aged patricians who had held high office in the state. For a while the Gauls withheld their hands out of awe and reverence, but the ruder passions soon prevailed. The city was sacked and burnt; but the Capitol itself withstood a siege of more than six months, saved from surprise on one occasion only by the wakefulness of the sacred geese and the courage of Marcus Manlius. At last the Gauls consented to accept a ransom of a thousand pounds of gold. As it was being weighed out, the Roman tribune complained of some unfairness. Brennus at once threw his heavy sword into the scale; and when asked the meaning of the act, replied that it meant Vae victis (“woe to the conquered”). The Gauls returned home with their plunder, leaving Rome in a condition from which she took long to recover. A later legend, probably an invention, represents M. Furius Camillus as suddenly appearing with an avenging army at the moment when the gold was being weighed, and defeating Brennus and all his host.

(1) The first Brennus crossed the Apennines in 391 BCE, devastated Etruria, and wiped out a Roman army of about 40,000 men at the Allia, about 12 miles from Clusium (July 16, 390). Rome was vulnerable, but he took his time, allowing the Romans to occupy and stock the Capitol (even though they didn't have enough troops to defend their walls) and to send their women and children to Veii. On the third day, when the Gauls took control, they found the city occupied only by elderly patricians who had once held high office. For a while, the Gauls hesitated out of respect, but their more primitive instincts soon took over. The city was sacked and burned; however, the Capitol held out against a siege of more than six months, saved on one occasion only by the alertness of the sacred geese and the bravery of Marcus Manlius. Eventually, the Gauls agreed to accept a ransom of a thousand pounds of gold. As it was being weighed, a Roman tribune complained of some unfairness. Brennus immediately threw his heavy sword onto the scale; when asked what that meant, he replied that it meant Vae victis (“woe to the conquered”). The Gauls returned home with their loot, leaving Rome in a state from which it took a long time to recover. A later story, likely fictional, has M. Furius Camillus appearing suddenly with an avenging army just as the gold was being weighed and defeating Brennus and all his men.

See null v. 33-49; Plutarch, Camillus, 17, 22, 28; Polybius i. 6, ii. 18; Dion. Halic. xiii. 7.

See null v. 33-49; Plutarch, Camillus, 17, 22, 28; Polybius i. 6, ii. 18; Dion. Halic. xiii. 7.

(2) The second Brennus is said to have been one of the leaders of an inroad made by the Gauls from the east of the Adriatic into Thrace and Macedonia (280), when they defeated and slew Ptolemy Ceraunus, then king of Macedonia. Whether Brennus took part in this first invasion or not is uncertain; but its success led him to urge his countrymen to a second expedition, when he marched with a large army through Macedonia and Thessaly until he reached Thermopylae. To this point the united forces of the northern Greeks—Athenians, Phocians, Boeotians and Aetolians—had fallen back; and here the Greeks a second time held their foreign invaders in check for many days, and a second time had their rear turned, owing to the treachery of some of the natives, by the same path which had been discovered to the Persians two hundred years before. Brennus and his Gauls marched on to Delphi, of whose sacred treasures they had heard much. But the little force which the Delphians and their neighbours had collected—about 4000 men—favoured by the strength of their position, made a successful defence. They rolled down rocks upon their enemies as they crowded into the defile, and showered missiles on them from above. A thunderstorm, with hail and intense cold, increased their confusion, and on Brennus himself being wounded they took to flight, pursued by the Greeks all the way back to Thermopylae. Brennus killed himself, “unable to endure the pain of his wounds,” says Justin; more probably determined not to return home defeated.

(2) The second Brennus is believed to have been one of the leaders of a raid by the Gauls from the east of the Adriatic into Thrace and Macedonia (280), during which they defeated and killed Ptolemy Ceraunus, the king of Macedonia at the time. It's unclear if Brennus was involved in this first invasion, but its success encouraged him to persuade his fellow countrymen to undertake a second expedition. He marched with a large army through Macedonia and Thessaly until reaching Thermopylae. At this point, the combined forces of the northern Greeks—Athenians, Phocians, Boeotians, and Aetolians—had retreated, and here the Greeks once again managed to hold off their foreign invaders for several days. However, they were betrayed by some locals, allowing the Gauls to take a route previously discovered by the Persians two hundred years earlier. Brennus and his Gauls continued on to Delphi, drawn by rumors of its sacred wealth. Yet, the small force gathered by the Delphians and their neighbors—around 4,000 men—successfully defended their position. They rolled boulders down on their enemies as they clustered in the narrow pass and rained down projectiles on them from above. A thunderstorm, complete with hail and freezing temperatures, added to the chaos, and after Brennus was wounded, the Gauls fled, pursued by the Greeks all the way back to Thermopylae. Brennus took his own life, "unable to bear the agony of his wounds," according to Justin; more likely, he chose not to return home in defeat.

See Justin xxiv. 6; Diod. Sic. xxii. 11; Pausanias x. 19-23; L. Contzen, Die Wanderungen der Kelten (Leipzig, 1861).

See Justin xxiv. 6; Diod. Sic. xxii. 11; Pausanias x. 19-23; L. Contzen, Die Wanderungen der Kelten (Leipzig, 1861).


BRENTANO, KLEMENS (1778-1842), German poet and novelist, was born at Ehrenbreitstein on the 8th of September 1778. His sister was the well-known Bettina von Arnim (q.v.), Goethe’s correspondent. He studied at Jena, and afterwards resided at Heidelberg, Vienna and Berlin. In 1818, weary of his somewhat restless and unsettled life, he joined the Roman Catholic Church and withdrew to the monastery of Dülmen where he lived for some years in strict seclusion. The latter part of his life he spent in Regensburg, Frankfort and Munich, actively engaged in Catholic propaganda. He died at Aschaffenburg on the 28th of July 1842. Brentano, whose early writings were published under the pseudonym Maria, belonged to the Heidelberg group of German romantic writers, and his works are marked by excess of fantastic imagery and by abrupt, bizarre modes of expression. His first published writings were Satiren und poetische Spiele (1800), and a romance Godwi (1801-1802); of his dramas the best are Ponce de Leon (1804), Victoria (1817) and Die Gründung Prags (1815). On the whole his finest work is the collection of Romanzen vom Rosenkranz (published posthumously in 1852); his short stories, and more especially the charming Geschichte vom braven Kasperl und dem schönen Annerl (1838), which has been translated into English, are still popular. Brentano also assisted Ludwig Achim von Arnim, his brother-in-law, in the collection of folk-songs forming Des Knaben Wunderhorn (1806-1808).

BRENTANO, KLEMENS (1778-1842), a German poet and novelist, was born in Ehrenbreitstein on September 8, 1778. His sister was the well-known Bettina von Arnim (q.v.), who corresponded with Goethe. He studied at Jena and later lived in Heidelberg, Vienna, and Berlin. In 1818, tired of his somewhat restless and unsettled life, he joined the Roman Catholic Church and moved to the Dülmen monastery, where he lived in strict seclusion for several years. The later part of his life was spent in Regensburg, Frankfurt, and Munich, where he actively engaged in Catholic advocacy. He died in Aschaffenburg on July 28, 1842. Brentano, whose early works were published under the pseudonym Maria, was part of the Heidelberg group of German romantic writers. His works are characterized by an abundance of fantastical imagery and sudden, unusual modes of expression. His first published writings were Satiren und poetische Spiele (1800) and the romance Godwi (1801-1802); among his dramas, the best are Ponce de Leon (1804), Victoria (1817), and Die Gründung Prags (1815). Overall, his finest work is the collection Romanzen vom Rosenkranz (published posthumously in 1852); his short stories, especially the delightful Geschichte vom braven Kasperl und dem schönen Annerl (1838), which has been translated into English, remain popular. Brentano also collaborated with Ludwig Achim von Arnim, his brother-in-law, on the collection of folk songs known as Des Knaben Wunderhorn (1806-1808).

Brentano’s collected works, edited by his brother Christian, appeared at Frankfort in 9 vols. (1851-1855). Selections have been edited by J.B. Diel (1873), M. Koch (1892), and J. Dohmke (1893). See J.B. Diel and W. Kreiten, Klemens Brentano (2 vols., 1877-1878), the introduction to Koch’s edition, and R. Steig, A. von Arnim und K. Brentano (1894).

Brentano's collected works, edited by his brother Christian, were published in Frankfurt in 9 volumes from 1851 to 1855. Selections have been edited by J.B. Diel (1873), M. Koch (1892), and J. Dohmke (1893). See J.B. Diel and W. Kreiten, Klemens Brentano (2 vols., 1877-1878), the introduction to Koch's edition, and R. Steig, A. von Arnim und K. Brentano (1894).


BRENTANO, LUDWIG JOSEPH [called Lujo] (1844-  ), German economist, a member of the same family as the preceding, was born at Aschaffenburg on the 18th of December 1844. He received some of his academical education in Dublin. In 1868 he made a thorough study of trade-unionism in England, which resulted in his principal work, Die Arbeitergilden der Gegenwart (Leipzig, 1871-1872; Eng. trans, by L.T. Smith). The book was assailed by Bamberger and other economists, but is important not only as an authority on modern associations of workmen, but for having given an impetus to the study of the gilds of the middle ages, and the examination of the great stores of neglected information bearing upon the condition of the people in olden days. Brentano’s other works are of a more theoretical character, and chiefly relate to political economy, of which he was professor at Breslau from 1872 to 1882, at Strassburg from 1882 to 1888, at Vienna 1888-1889, at Leipzig 1889-1891, and at Munich since 1891. We may mention Das Arbeitsverhältnis gemäss dem heutigen Recht (1877); Die christlich-soziale Bewegung in England (1883); Über das Verhältnis von Arbeitslohn und Arbeitszeit zur Arbeitsleistung (1893); Agrarpolitik (1897).

BRENTANO, LUDWIG JOSEPH [known as Luxury] (1844-  ), German economist, part of the same family as the previous entry, was born in Aschaffenburg on December 18, 1844. He received part of his academic education in Dublin. In 1868, he conducted an in-depth study of trade unionism in England, which led to his main work, Die Arbeitergilden der Gegenwart (Leipzig, 1871-1872; Eng. trans, by L.T. Smith). The book was criticized by Bamberger and other economists, but is significant not only as a source on modern workers' associations but also for motivating the study of medieval guilds and the exploration of the vast amounts of overlooked information related to the condition of people in earlier times. Brentano’s other works are more theoretical and mainly focus on political economy, of which he was a professor at Breslau from 1872 to 1882, at Strassburg from 1882 to 1888, at Vienna from 1888-1889, at Leipzig from 1889-1891, and at Munich since 1891. Notable titles include Das Arbeitsverhältnis gemäss dem heutigen Recht (1877); Die christlich-soziale Bewegung in England (1883); Über das Verhältnis von Arbeitslohn und Arbeitszeit zur Arbeitsleistung (1893); Agrarpolitik (1897).


BRENTFORD, a market town in the Brentford parliamentary division of Middlesex, England, 10½ m. W. of Waterloo terminus, London, by the London & South-Western railway, at the junction of the river Brent with the Thames. Pop. of urban district (1901) 15,171. The Grand Junction Canal joins the Brent, affording ample water-communications to the town, which has considerable industries in brewing, soap-making, saw-milling, market-gardening, &c. The Grand Junction waterworks are situated here. Brentford has been the county-town for elections since 1701.

BRENTFORD, is a market town in the Brentford parliamentary district of Middlesex, England, located 10½ miles west of Waterloo station in London, at the point where the river Brent meets the Thames. The population of the urban district was 15,171 in 1901. The Grand Junction Canal connects with the Brent, providing good water access to the town, which has significant industries in brewing, soap-making, saw-milling, market gardening, and so on. The Grand Junction waterworks are located here. Brentford has been the county town for elections since 1701.

In 1016 Brentford, or, as it was often called Braynford, was the scene of a great defeat inflicted on the Danes by Edmund Ironside. In 1280 a toll was granted by Edward I., who granted the town a market, for the construction of a bridge across the river, and in the reign of Henry VI. a hospital of the Nine Orders of Angels was founded near its western side. In 1642 a battle was fought here in which the royalists defeated the parliamentary forces. For his services on this occasion the Scotsman Ruthven, earl of Forth, was made earl of Brentford, a title afterwards conferred by William III. on Marshal Schomberg. Brentford was during the 16th and 17th centuries a favourite resort of London citizens; and its inn of the Three Pigeons, which was kept for a time by John Lowin, one of the first actors of Shakespeare’s plays, is frequently alluded to by the dramatists of the period. Falstaff is disguised as the “Fat Woman of Brentford” in Shakespeare’s Merry Wives of Windsor, and numerous other references to the town in literature point, in most cases, to its reputation for excessive dirt. The “two kings of Brentford” mentioned in Cowper’s Task, and elsewhere, seem to owe their 497 mythical existence to the play, The Rehearsal, by George Villiers, second duke of Buckingham, produced in 1671.

In 1016, Brentford, often referred to as Braynford, was the site of a major defeat dealt to the Danes by Edmund Ironside. In 1280, Edward I granted a toll to the town, allowing for the construction of a bridge across the river and a market. During the reign of Henry VI, a hospital called the Nine Orders of Angels was established on the western side. In 1642, a battle took place here where the royalists defeated the parliamentary forces. For his contributions in this event, the Scotsman Ruthven, Earl of Forth, was made Earl of Brentford, a title later awarded by William III to Marshal Schomberg. Throughout the 16th and 17th centuries, Brentford was a popular getaway for London citizens, and its inn, the Three Pigeons, was run for a time by John Lowin, one of the original actors in Shakespeare’s plays, often mentioned by the playwrights of that era. Falstaff disguises himself as the "Fat Woman of Brentford" in Shakespeare’s Merry Wives of Windsor, and various other literary references to the town mostly highlight its notorious reputation for being very dirty. The “two kings of Brentford” mentioned in Cowper’s Task and other works appear to have been inspired by the play The Rehearsal, written by George Villiers, the second Duke of Buckingham, which premiered in 1671.

South of Brentford, towards Isleworth, is Sion House, a mansion founded by Lord Protector Somerset in 1547, and rebuilt and enlarged by the 10th earl of Northumberland and Sir Hugh Smithson, afterwards duke of Northumberland, the architects being Inigo Jones and Robert Adam. The gardens are very beautiful. The site of Sion or Syon House was previously occupied by a convent of Bridgetine nuns established at Twickenham by Henry V. in 1415 and removed here in 1431.

South of Brentford, heading toward Isleworth, is Sion House, a mansion established by Lord Protector Somerset in 1547, which was later rebuilt and expanded by the 10th Earl of Northumberland and Sir Hugh Smithson, who became the Duke of Northumberland. The architects were Inigo Jones and Robert Adam. The gardens are stunningly beautiful. The location of Sion or Syon House was once home to a convent of Bridgetine nuns that was founded at Twickenham by Henry V in 1415 and moved here in 1431.


BRENTON, SIR JAHLEEL (1770-1844), British admiral, was born in Rhode Island, U.S.A., on the 22nd of August 1770. He was the son of Rear-Admiral Jahleel Brenton (1729-1802), who belonged to a loyalist family which suffered the loss of most of its property in the insurrection of the American colonies. He was a lieutenant in the British navy when the war began, and emigrated with his family to the mother country. Three of the sons entered the navy—Jahleel (the eldest), Captain Edward Pelham Brenton (1774-1839), and James Wallace Brenton, who was killed young in 1799 when attacking a Spanish privateer near Barcelona in the boats of the “Petrel,” of which he was lieutenant. Jahleel went to sea first with his father in 1781, and on the return of peace was sent to the “maritime school” at Chelsea. He served in the peace before the beginning of the war in 1793, and passed his examination as lieutenant, but seeing no chance of employment went with other English naval officers to serve in the Swedish navy against the Russians. In 1790 he received his commission and returned home. Till 1799 he served as lieutenant, or acting commander, mostly under Earl St Vincent, and was present in the battle from which the admiral received his title. As commander of the “Speedy” brig he won much distinction in actions with Spanish gunboats in the Straits of Gibraltar. In 1800 he reached the rank of post-captain, and had the good fortune to serve as flag-captain to Sir James (afterwards Lord) Saumarez in the action at Algeciras, and in the Straits in 1801. During the peace of Amiens he married Miss Stewart, a lady belonging to a loyalist family of Nova Scotia. After the renewal of the war he commanded a succession of frigates. In 1803 he had the misfortune to be wrecked on the coast of France, and remained for a time in prison, where his wife joined him. Having been exchanged he was named to another ship. His most brilliant action was fought with a flotilla of Franco-Neapolitan vessels outside of Naples in May 1801. He was severely wounded, and Murat, then king of Naples, praised him effusively. He was made a baronet in 1812 and K.C.B. in 1815. After his recovery from his wound he was unable to bear sea service, but was made commissioner of the dockyard at Port Mahon, and then at the Cape, and was afterwards lieutenant-governor of Greenwich hospital till 1840. He reached flag rank in 1830. In his later years he took an active part in philanthropic work, in association with his brother, Captain E.P. Brenton, who had seen much service but is best remembered by his writings on naval and military history,—Naval History of Great Britain from the Year 1783 to 1822 (1823), and The Life and Correspondence of John, Earl of St Vincent (1838).

BRENTON, SIR JAHLEEL (1770-1844), British admiral, was born in Rhode Island, U.S.A., on August 22, 1770. He was the son of Rear-Admiral Jahleel Brenton (1729-1802), who came from a loyalist family that lost most of its property during the American colonies' uprising. He was a lieutenant in the British navy when the war started and moved with his family back to Britain. Three of Jahleel's brothers joined the navy—Jahleel (the eldest), Captain Edward Pelham Brenton (1774-1839), and James Wallace Brenton, who tragically died young in 1799 while attacking a Spanish privateer near Barcelona on the “Petrel,” where he was a lieutenant. Jahleel first went to sea with his father in 1781, and after the peace, he was sent to the “maritime school” in Chelsea. He served during the peace before the war began in 1793 and passed his lieutenant examination but saw no job opportunities, so he went to serve in the Swedish navy against the Russians along with other British naval officers. In 1790, he received his commission and returned home. Until 1799, he served as a lieutenant or acting commander, mainly under Earl St Vincent, and participated in the battle that earned the admiral his title. As commander of the “Speedy” brig, he gained significant recognition for engagements with Spanish gunboats in the Straits of Gibraltar. In 1800, he reached the rank of post-captain and had the fortune of serving as flag-captain to Sir James (later Lord) Saumarez during the battle at Algeciras and in the Straits in 1801. During the peace of Amiens, he married Miss Stewart, part of a loyalist family from Nova Scotia. After the war resumed, he commanded a series of frigates. In 1803, he faced the misfortune of being shipwrecked off the coast of France, and he spent some time in prison, where his wife joined him. Once exchanged, he was assigned to another ship. His most notable engagement was against a group of Franco-Neapolitan vessels outside Naples in May 1801, where he was severely wounded, and Murat, the king of Naples at the time, praised him highly. He was made a baronet in 1812 and K.C.B. in 1815. After recovering from his wound, he could no longer serve at sea but became the commissioner of the dockyard at Port Mahon and later at the Cape. He then served as lieutenant-governor of Greenwich hospital until 1840. He reached flag rank in 1830. In his later years, he was actively involved in philanthropic work, alongside his brother Captain E.P. Brenton, who had significant naval experience but is best remembered for his writings on naval and military history—Naval History of Great Britain from the Year 1783 to 1822 (1823) and The Life and Correspondence of John, Earl of St Vincent (1838).

A Memoir of the Life and Services of Vice-Admiral Sir Jahleel Brenton, based on his own papers, was published in 1846 by the Rev. Henry Raikes, and reissued by the admiral’s son, Sir L.C.L. Brenton, in 1855.

A Memoir of the Life and Services of Vice-Admiral Sir Jahleel Brenton, based on his own papers, was published in 1846 by the Rev. Henry Raikes, and reissued by the admiral’s son, Sir L.C.L. Brenton, in 1855.

(D. H.)

BRENTWOOD, a market town in the mid or Chelmsford parliamentary division of Essex, England; 18 m. E.N.E. of London by the Great Eastern railway (Brentwood and Worley station). Pop. of urban district (1901) 4932. The neighbouring country is pleasantly undulating and well wooded. The church of St Thomas the Martyr, with several chapels, is modern. The old assize house, an Elizabethan structure, remains. A free grammar school was founded in 1557. The county asylum is in the vicinity. There are breweries and brick works. To the south lies the fine upland of Worley Common, with large barracks. Adjoining Brentwood to the north-east is Shenfield, with the church of St Mary the Virgin, Early English and later. Brentwood was formerly an important posting station on the main road to the eastern counties, which follows the line of the railway to Colchester. The name (Burntwood) is supposed to record an original settlement made in a clearing of the forest. The district is largely residential.

BRENTWOOD, is a market town in the Chelmsford parliamentary division of Essex, England; it’s located 18 miles E.N.E. of London by the Great Eastern railway (Brentwood and Worley station). The population of the urban district in 1901 was 4,932. The surrounding countryside is pleasantly rolling and well-wooded. The church of St Thomas the Martyr, along with several chapels, is modern. The old assize house, an Elizabethan building, still stands. A free grammar school was established in 1557. The county asylum is nearby. There are breweries and brickworks in the area. To the south is the beautiful upland of Worley Common, which has large barracks. To the north-east of Brentwood is Shenfield, featuring the church of St Mary the Virgin, which has Early English and later architectural styles. Brentwood used to be a significant posting station on the main road to the eastern counties, which runs alongside the railway to Colchester. The name (Burntwood) is thought to reflect an original settlement made in a clearing of the forest. The area is mostly residential.


BRENZ, JOHANN (1499-1570), Lutheran divine, eldest son of Martin Brenz, was born at Weil, Württemberg, on the 24th of June 1499. In 1514 he entered the university of Heidelberg, where Oecolampadius was one of his teachers, and where in 1518 he heard Luther discuss. Ordained priest in 1520, and appointed preacher (1522) at Hall in Swabia, he gave himself to biblical exposition. He ceased to celebrate mass in 1523, and reorganized his church in 1524. Successful in resisting the peasant insurrection (1525), his fortunes were affected by the Schmalkaldic War. From Hall, when taken by the imperial forces, he fled on his birthday in 1548. Protected by Duke Ulrich of Württemberg, he was appointed (January 1553) provost of the collegiate church of Stuttgart. As organizer of the reformation in Württemberg he did much fruitful work. A strong advocate of Lutheran doctrine, and author of the Syngramma Suevicum (October 21, 1525), which set forth Luther’s doctrine of the Eucharist, he was free from the persecuting tendencies of the age. He is praised and quoted (as Joannes Witlingius) for his judgment against applying the death penalty to anabaptists or other heretics in the De Haereticis, an sint persequendi (1554), issued by Sebastian Castellio under the pseudonym of Martinus Bellius. An incomplete edition of his works (largely expository) appeared at Tübingen, 1576-1590. Several of his sermons were reproduced in contemporary English versions. A volume of Anecdota Brentiana was edited by Pressel in 1868. He died on the 11th of September 1570, and was buried in his church at Stuttgart; his grave was subsequently violated. He was twice married, and his eldest son, Johann Brenz, was appointed (1562) professor of theology in Tübingen at the early age of twenty-two.

BRENZ, JOHANN (1499-1570), Lutheran theologian, eldest son of Martin Brenz, was born in Weil, Württemberg, on June 24, 1499. In 1514, he enrolled at the University of Heidelberg, where Oecolampadius was one of his professors, and in 1518, he attended a discussion led by Luther. Ordained as a priest in 1520 and appointed as a preacher in Hall, Swabia, in 1522, he dedicated himself to biblical interpretation. He stopped celebrating mass in 1523 and reorganized his church in 1524. Successful in resisting the peasant uprising in 1525, his circumstances changed due to the Schmalkaldic War. After Hall was captured by imperial forces, he fled on his birthday in 1548. Under the protection of Duke Ulrich of Württemberg, he was appointed provost of the collegiate church in Stuttgart in January 1553. As an organizer of the Reformation in Württemberg, he accomplished a lot of valuable work. A strong supporter of Lutheran doctrine and author of the Syngramma Suevicum (October 21, 1525), which outlined Luther's views on the Eucharist, he was free from the era's persecuting attitudes. He is recognized and cited (as Joannes Witlingius) for his stance against the death penalty for Anabaptists or other heretics in the De Haereticis, an sint persequendi (1554), published by Sebastian Castellio under the pseudonym Martinus Bellius. An incomplete edition of his works, mostly expository, was published in Tübingen from 1576 to 1590. Several of his sermons were translated into contemporary English. A volume of Anecdota Brentiana was edited by Pressel in 1868. He died on September 11, 1570, and was buried in his church in Stuttgart; his grave was later disturbed. He was married twice, and his eldest son, Johann Brenz, was appointed a professor of theology in Tübingen in 1562 at the young age of twenty-two.

See Hartmann and Jäger, Johann Brenz (1840-1842); Bossert, in Hauck’s Realencyklop. (1897).

See Hartmann and Jäger, Johann Brenz (1840-1842); Bossert, in Hauck’s Realencyklop. (1897).

(A. Go.*)

BRÉQUIGNY, LOUIS GEORGES OUDARD FEUDRIX DE (1714-1795), French scholar, was born at Gainneville near Havre, on the 22nd of February 1714, and died at Paris on the 3rd of July 1795. His first publications were anonymous: an Histoire des révolutions de Gènes jusqu’à la paix de 1748 (1750), and a series of Vies des orateurs grecs (1752). Elected a member of the Académie des Inscriptions et Belles-lettres in 1759, he contributed an Histoire de Posthume empereur des Gaules (vol. xxx., 1760) to the collected works of that illustrious society, and also a Mémoire sur l’établissement de la religion et de l’empire de Mahomet (vol. xxxii., 1761-1763). After the close of the Seven Years’ War he was sent to search in the archives of England for documents bearing upon the history of France, more particularly upon that of the French provinces which once belonged to England. This mission (1764-1766) was very fruitful in results; Bréquigny brought back from it copies of about 7000 documents, which are now in the Bibliothèque Nationale. A useful selection of these documents was published (unfortunately without adequate critical treatment) by Jean Jacques Champollion-Figeac, under the title Lettres de rois, reines et autres personnages des cours de France et d’Angleterre, depuis Louis VII. jusqu’à Henri IV., tirées des archives de Londres par Bréquigny (collection of Documents inédits relatifs a l’histoire de France, 2 vols., 1839, 1847). Bréquigny himself drew the material for many important studies from the rich mine which he had thus exploited. These were included in the collection of the Académie des Inscriptions: Mémoire sur les différends entre la France et l’Angleterre sous le règne de Charles le Bel (vol. xli.); Mémoire sur la vie de Marie, reine de France, soeur de Henri VIII., roi d’Angleterre (vol. xlii.); four Mémoires pour senir à l’histoire de Calais (vols. xliii. and l.); and Mémoire sur les négotiations touchant les projets de mariage d’Elizabeth, reine d’Angleterre, d’abord avec le duc d’Anjou, ensuite avec le due d’Alençon, tons deux frères de Charles IX. (vol. l.). This last was read to the Academy on the 22nd of January 1793, the morrow of Louis XVI.’s execution. Meanwhile, Bréquigny had taken part in three great and erudite works. For the Recueil des ordonnances des rois de France he had prepared 498 volumes x.-xiv., the preface to vol. xi. containing important researches into the French communes. To the Table chronologique des diplômes, chartes, lettres, et actes imprimés concernant l’histoire de France he contributed three volumes in collaboration with Mouchet (1769-1783). Charged with the supervision of a large collection of documents bearing on French history, analogous to Rymer’s Foedera, he published the first volume (Diplomatat. Chartae, &c., 1791). The Revolution interrupted him in his collection of Mémoires concernant l’histoire, les sciences, les lettres, et les arts des Chinois, begun in 1776 at the instance of the minister Bertin, when fifteen volumes had appeared.

BRÉQUIGNY, LOUIS GEORGES OUDARD FEUDRIX DE (1714-1795), a French scholar, was born in Gainneville near Havre, on February 22, 1714, and passed away in Paris on July 3, 1795. His first publications were anonymous: an History of the Revolutions of Genoa Until the Peace of 1748 (1750), and a series of Lives of Greek Orators (1752). He was elected to the Académie des Inscriptions et Belles-lettres in 1759, where he contributed an History of Posthumus, Emperor of the Gauls (vol. xxx., 1760) to the collected works of that distinguished society, along with a Memoir on the Establishment of the Religion and Empire of Muhammad (vol. xxxii., 1761-1763). After the Seven Years' War, he was sent to the archives in England to search for documents related to the history of France, especially concerning the French provinces that once belonged to England. This mission (1764-1766) yielded significant results; Bréquigny returned with copies of about 7,000 documents, which are now housed in the Bibliothèque Nationale. A selection of these documents was published (unfortunately without proper critical analysis) by Jean Jacques Champollion-Figeac, titled Letters of Kings, Queens, and Other Figures from the Courts of France and England, from Louis VII to Henry IV, extracted from the Archives of London by Bréquigny (collection of Unpublished Documents Related to the History of France, 2 vols., 1839, 1847). Bréquigny himself used this valuable material for many important studies, included in the collection of the Académie des Inscriptions: Memoir on the Disputes Between France and England During the Reign of Charles the Bold (vol. xli.); Memoir on the Life of Marie, Queen of France, Sister of Henry VIII, King of England (vol. xlii.); four Memoirs Related to the History of Calais (vols. xliii. and l.); and Memoir on the Negotiations Regarding the Marriage Proposals of Elizabeth, Queen of England, First with the Duke of Anjou, Then with the Duke of Alençon, Both Brothers of Charles IX (vol. l.). This last one was presented to the Academy on January 22, 1793, the day after Louis XVI's execution. Meanwhile, Bréquigny had participated in three major scholarly projects. For the Collection of Ordinances from the Kings of France, he prepared volumes x.-xiv., with the preface to vol. xi. containing important research on French communes. He contributed three volumes to the Chronological Table of Diplomas, Charters, Letters, and Printed Acts Related to the History of France in collaboration with Mouchet (1769-1783). Tasked with overseeing a large collection of documents related to French history, similar to Rymer’s Foedera, he published the first volume (Diplomatat. Chartae, etc., 1791). The Revolution interrupted his work on Memoirs Concerning the History, Sciences, Letters, and Arts of the Chinese, which he began in 1776 at the request of Minister Bertin, with fifteen volumes already published.

See the note on Bréquigny at the end of vol. i. of the Mémoires de l’Académie des Inscriptions (1808); the Introduction to vol. iv. of the Table chronologique des diplômes (1836); Champollion-Figeac’s preface to the Lettres des rois et reines; the Comité des travaux historiques, by X. Charmes, vol. i. passim; N. Oursel, Nouvelle biographie normande (1886); and the Catalogue des manuscrits des collections Duchesne et Bréquigny (in the Bibliothèque Nationale), by René Poupardin (1905).

See the note on Bréquigny at the end of vol. i. of the Mémoires de l’Académie des Inscriptions (1808); the Introduction to vol. iv. of the Table chronologique des diplômes (1836); Champollion-Figeac’s preface to the Lettres des rois et reines; the Comité des travaux historiques, by X. Charmes, vol. i. passim; N. Oursel, Nouvelle biographie normande (1886); and the Catalogue des manuscrits des collections Duchesne et Bréquigny (in the Bibliothèque Nationale), by René Poupardin (1905).

(C. B.*)




        
        
    
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