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PLANT OF KENTUCKY TOBACCO
From a Sketch by W. A. Brennan
PLANT OF KENTUCKY TOBACCO
From a Sketch by W. A. Brennan
Tobacco Leaves
Tobacco Leaves
Being
A Book of Facts
For Smokers
Being
A Book of Facts
For Smokers
BY
W. A. BRENNAN
Department of Medical Sciences
The John Crerar Library
BY
W. A. BRENNAN
Department of Medical Sciences
The John Crerar Library

PUBLISHED FOR
Index Office, Inc.
PUBLISHED FOR
Index Office, Inc.
BY
The Collegiate Press
George Banta Publishing Company
Menasha, Wisconsin
1915
BY
The Collegiate Press
George Banta Publishing
Menasha, WI
1915
First issue
December, 1915
First issue December 1915
Copyright 1915
by
W. A. BRENNAN
Copyright 1915 by W. A. BRENNAN
CONTENTS
PAGE | |
Intro | 7 |
Chapter 1 | 11 |
Historical, Botanical. | |
Chapter 2 | 19 |
The Cultivation of the Tobacco Plant. | |
Climatic and soil conditions—Treatment of the growing plant—Shade grown tobacco—Harvesting. | |
Chapter 3 | 29 |
Production of Tobacco. | |
Countries which produce tobacco and amount—Production in the New World other than in the United States—Varieties. | |
Chapter 4 | 39 |
Production of Tobacco in the United States. | |
Total production—Amount produced by the different States—Varieties raised—Description of the different varieties. | |
Chapter 5 | 53 |
The Chemical Composition of the Tobacco Plant. | |
Organic and inorganic matters contained in tobacco and the part they play—Analysis of various tobaccos—Nicotine. | |
Chapter 6 | 61 |
The Curing of Tobacco Leaf. | |
Objects of curing—Methods. | |
Chapter 7 | 67 |
The Marketing and Sale of Tobacco Leaf. | |
Methods of disposal by the grower—The warehouse system—Direct purchase—Principal markets in the United States—Prices. | |
Chapter 8 | 75 |
Rehandling and Fermentation of Tobacco Leaf Prior to Manufacture. | |
Selection of leaf—Treatment and blending—Objects and methods of manufacturers fermentation—Action of microbes. | |
Chapter 9 | 88 |
Manufactured Products of Tobacco in the United States. | |
Statistics of production and consumption—Amount of capital invested—Number of plants, etc. | |
Chapter X | 93 |
Cigars: Historical and General Facts. | |
History—Statistical information regarding the cigar business in the United States. | |
Chapter 11 | 99 |
Cigars and Their Qualities. | |
Qualities of cigars and cigar leaf—Imported cigars—Havanas—Domestic cigars. | |
Chapter 12 | 111 |
Cigar Making. | |
Hand-made cigars—Machine-made cigars—Classification of cigars—Terms used in the cigar trade. | |
Chapter 13 | 121 |
Pipe Smoking and Chewing Tobacco. | |
Qualities required—Description of kinds—Perique tobacco—Statistics. | |
Chapter 14 | 131 |
Cigarettes. | |
Statistics—Kinds and where made—Imported cigarettes—Domestic cigarettes—Cigarette papers. | |
Chapter 15 | 143 |
Snuff. | |
How made—Qualities—Description of kinds. | |
Chapter 16 | 149 |
Tobacco Smoking Pipes. | |
History—How made and materials used in making—Meerschaum—Briar root—Amber—Special kinds of pipes—Care of pipes. | |
Chapter 17 | 171 |
Effects of Tobacco Smoking on the Human System. | |
Physical and other effects—Opinions of medical men quoted and discussed. | |
Chapter 18 | 195 |
The Beneficial Effects of Tobacco. | |
Its disinfecting action—A protection against infectious disease—Psychological effects of smoking. | |
Chapter 19 | 207 |
Miscellaneous. | |
Revenue, taxation, etc., in connection with tobacco—Free imports—The insect pests which attack tobacco—Tobacco flavoring fluids, etc.—Formulae. |
INTRODUCTION
This little book is intended for the man who uses tobacco. While there is a very extensive literature concerning tobacco, yet it is surprising how few books there are written expressly for the smoker. Much has been written concerning culture, production and manufacture; the historical and anecdotal aspects have been catered for; pamphlets and books abusing and denouncing the use of tobacco are plentiful; but the smoker will find it difficult to get a book just giving him the facts concerning tobacco and smoking, which he ought to know, and omitting matters, which, although interesting, are not necessary. This little book is an attempt to fulfil that purpose; and it is felt that no apology is needed for its appearance. If the average user of tobacco is questioned concerning the matters treated in the following pages, he will be found ignorant of them. This ought not be so. The custom of tobacco smoking is so general and so intimate a part of the daily life of the great majority of men, that a better acquaintance with the plant, its qualities, uses and effects, should be cultivated and welcomed.
This little book is meant for people who use tobacco. While there's a lot of literature about tobacco, it’s surprising how few books are specifically written for smokers. There are plenty of texts on culture, production, and manufacturing; historical and anecdotal aspects are well covered; and there’s no shortage of pamphlets and books criticizing and condemning tobacco use. However, smokers will struggle to find a book that simply provides the facts about tobacco and smoking that they should know, while leaving out the interesting but unnecessary information. This little book aims to fill that gap, and no apology is needed for its publication. If you ask an average tobacco user about the topics covered in the following pages, you'll find they are often unaware. This shouldn’t be the case. Smoking tobacco is so common and such an integral part of the daily lives of most people that a better understanding of the plant, its qualities, uses, and effects should be encouraged and embraced.
No claim is made for originality. The facts here stated have been gathered from various[Pg 8] sources and the only credit claimed is for putting them together in a concise and consecutive form. The object aimed at is to give information. Whether the custom of tobacco smoking is desirable, whether in any individual case it would be beneficial or otherwise to smoke—these and similar questions are left to the reader’s own judgment from the facts and opinions presented, as well as from his own observations. The man who uses tobacco daily should know what he is doing. If statements are made either verbally or in print concerning the custom he should be able to verify them or show that they are incorrect. It is trusted that the information given in these pages will enable him to form a clear judgment whatever the judgment may be.
No claim is made for originality. The facts here are gathered from various [Pg 8] sources, and the only credit taken is for organizing them in a concise and logical manner. The goal is to provide information. Whether tobacco smoking is a good habit, or whether it is beneficial or harmful for any individual—these and similar questions are left for the reader to decide based on the facts and opinions presented, as well as their own experiences. A person who uses tobacco daily should understand the implications of their choice. If there are statements made, either spoken or written, about this habit, they should be able to verify them or point out inaccuracies. It is hoped that the information provided in these pages will help them form an informed opinion, whatever that may be.
It may be felt that many aspects of the use of tobacco and matters connected with it have either not been touched on, or only referred to very briefly. The reader who may desire further information will find it in the bibliographical references given throughout the book. These references have generally been consulted by the author and his indebtedness is acknowledged here.
It might seem like many aspects of tobacco use and related issues haven't been covered in depth or only mentioned briefly. Readers looking for more information can find it in the bibliographical references provided throughout the book. The author has generally consulted these references and acknowledges his debt to them here.
To My Wife
To My Wife
CHAPTER I
HISTORICAL—BOTANICAL
HISTORICAL—BOTANICAL
HISTORICAL
HISTORY
The history of tobacco commences with the discovery of the New World by Columbus. The Chinese claim that it was known and used by them much earlier, but there appears to be no evidence to support this claim. Columbus found the natives of Cuba smoking the dried leaves, and his followers are said to have brought the plant to Spain about 1512. Oviedo published a book entitled La Historia general de las Indias in Seville in 1526, in which he mentions pipe smoking. It may be inferred that this custom was well established in Spain then. Sir Walter Raleigh is usually credited with having brought tobacco to England for the first time from Virginia in 1586; and the Virginian Colonists are known to have cultivated the plant at that time; but there is evidence enough to show that Sir Francis Drake was the first to introduce the plant into England. Drake’s voyages were made between 1570 and 1580 and he brought the plant with him in one of these. Some give the date of introduction by Drake as 1560. Raleigh was, however, probably the first English distinguished smoker, and he cultivated the plant on his estate at Youghal, Ireland. There is no doubt about the culture of tobacco by the early English Colonists in the U. S.,[Pg 14] but it is doubtful whether the plant was introduced by them from England or whether they continued a culture learned from the Natives. From Virginia it spread to the other colonies. In Peru and other parts of South America the growing of tobacco was well established at the time of the Spanish Conquest.
The history of tobacco starts with Columbus's discovery of the New World. The Chinese claim they knew and used it much earlier, but there's no evidence to back that up. Columbus found the natives of Cuba smoking dried leaves, and his followers reportedly brought the plant to Spain around 1512. Oviedo published a book titled La Historia general de las Indias in Seville in 1526, where he mentions pipe smoking. It's likely that this practice was already well established in Spain at that time. Sir Walter Raleigh is generally credited with bringing tobacco to England for the first time from Virginia in 1586, and we know that the Virginian Colonists were cultivating the plant back then. However, there's enough evidence to indicate that Sir Francis Drake was actually the first to introduce the plant to England. Drake's voyages occurred between 1570 and 1580, and he brought the plant along on one of those trips. Some sources suggest that Drake introduced it as early as 1560. Raleigh was probably the first notable smoker in England, and he grew the plant on his estate in Youghal, Ireland. There's no doubt that early English Colonists in the U.S. cultivated tobacco, [Pg 14] but it's uncertain whether they brought the plant from England or continued a cultivation they learned from the Natives. From Virginia, tobacco spread to other colonies. In Peru and other regions of South America, tobacco farming was already well established by the time of the Spanish Conquest.
In 1560 Jean Nicot, the French Ambassador at Lisbon, sent some tobacco to Catherine de Medici as a cure for headache. Catherine was pleased with it and is said to have become quite addicted to its use. Tobacco was designated the “Queen’s herb” and the “Sovereign herb” from this circumstance and Nicot himself is perpetuated in the word “Nicotine” and its derivatives.
In 1560, Jean Nicot, the French Ambassador in Lisbon, sent some tobacco to Catherine de Medici as a remedy for headaches. Catherine liked it and is said to have become quite addicted to using it. Tobacco was called the “Queen’s herb” and the “Sovereign herb” because of this, and Nicot’s name lives on in the term “Nicotine” and its related words.
Many persons erroneously give credit to Nicot for the introduction of tobacco into Europe. It is quite clear, however, from Oviedo’s book, quoted above, that the plant was known in Spain very much earlier; and it is most probable that the immediate followers of Columbus brought samples of the leaves and pipes back to Spain with them. Moreover, in 1558, Phillip II of Spain sent Francisco Hernandez, a physician, to investigate the resources, etc., of Mexico, and on his return he brought back tobacco as one of the products, and grew it as a drug. From Spain and [Pg 15]England, the use of tobacco spread by degrees all over the known world.
Many people mistakenly credit Nicot with bringing tobacco to Europe. However, it is clear from Oviedo’s book, mentioned earlier, that the plant was recognized in Spain much earlier. It’s likely that the immediate followers of Columbus brought back samples of the leaves and pipes to Spain. Additionally, in 1558, Philip II of Spain sent Francisco Hernandez, a physician, to explore the resources of Mexico, and upon his return, he brought back tobacco as one of the products and grew it as a drug. From Spain and [Pg 15] England, the use of tobacco gradually spread throughout the known world.
REFERENCES
REFERENCES
Penn, W. A. The Soverane Herbe; a history of Tobacco. Chapters I, II. London and New York, 1901.
Penn, W.A. The Sovereign Herb; a history of Tobacco. Chapters I, II. London and New York, 1901.
Bouant, E. Le Tabac; culture et industrie. Paris, 1901.
Bouant, E. Tobacco: Cultivation and Industry. Paris, 1901.
Shew, Joel. Tobacco; its history, nature and effects on the body and mind. Wortley, 1876.
Show, Joel. Tobacco; its history, nature, and effects on the body and mind. Wortley, 1876.
Billings, E. R. Tobacco; its history, varieties, culture, etc. Chapters II, IV. Hartford, Conn., 1895.
Billings, E.R. Tobacco; its history, varieties, culture, etc. Chapters II, IV. Hartford, Conn., 1895.
Comes, O. Histoire, geographie, statistique du Tabac. Son introduction et son expansion dans tous les pays depuis son origine jusqu’ à la fin du XIX siècle. Naples, 1900.
Come, O. History, geography, statistics of Tobacco. Its introduction and expansion in all countries from its origin to the end of the 19th century. Naples, 1900.
Fairholt, F. W. Tobacco; its history and associations. London, 1876.
Fairholt, F. W. Tobacco: Its History and Associations. London, 1876.
Wolf, Jakob. Der Tabak und die Tabakfabrikate. Chapter I. Leipzig, 1912.
Wolf, Jakob. The Tobacco and Tobacco Products. Chapter I. Leipzig, 1912.
BOTANICAL
PLANT-BASED
Tobacco belongs to the family of plants known in botany under the name of Solanaceæ. Other well-known members of this family are the Irish potato, the red pepper, the tomato, the egg-plant, etc.
Tobacco is part of the plant family known scientifically as Solanaceæ. Other familiar members of this family include the Irish potato, red pepper, tomato, eggplant, and others.
[Pg 16]American tobacco belongs almost exclusively to that group of this family which comprise the genus Nicotiana. Of this genus there are about 50 separate species, one of which, Nicotiana Tabacum, supplies almost all the tobacco of commerce. Plants of this species grow from 2 feet to 9 feet in height; they have numerous wide-spreading leaves sometimes as much as 3 feet in length; these leaves may be oval, oblong, pointed, or lanceolate in shape, and are generally of a pale green color when young; they are arranged alternately in a spiral on the stem; the root is large and fibrous; the stem is erect, round and viscid, branching near the top. The alternate arrangement of the leaves on the stalk, succeeding each other spirally, so that the 9th overhangs the 1st, the 10th the 2nd, and so on, is very characteristic. The distance on the stalk between the leaves is about 2 inches. Flowers are in large clusters, with corollas of rose color, or white tinged with pink. The leaves and stalks are covered with soft downy hair. The plant is perennial but crops are usually raised from seed.
[Pg 16]American tobacco is almost entirely part of the family that makes up the genus Nicotiana. This genus includes about 50 distinct species, with Nicotiana Tabacum being the main source of commercial tobacco. Plants of this species can grow between 2 and 9 feet tall; they have many wide-spreading leaves that can be up to 3 feet long. These leaves come in various shapes—oval, oblong, pointed, or lanceolate—and are typically pale green when young. They are arranged alternately in a spiral on the stem, with the root being large and fibrous. The stem is upright, round, and sticky, branching near the top. The unique spiral arrangement of the leaves on the stalk is quite noticeable, with the 9th leaf overhanging the 1st, the 10th overhanging the 2nd, and so on. The space between the leaves on the stalk is about 2 inches. Flowers appear in large clusters, with petals that are rose-colored or white with a pink tint. The leaves and stems are covered in soft, downy hairs. This plant is perennial, but crops are typically grown from seeds.
Of this species (N. Tabacum) there are probably more than 100 varieties grown in the U. S. alone. Some of the best known will be described later.
Of this species (N. Tabacum), there are probably more than 100 varieties grown in the U.S. alone. Some of the most well-known will be described later.
[Pg 17]To this same species (N. Tabacum) Havana, East Indian and European tobaccos principally belong. The other important species are:
[Pg 17]This same species (N. Tabacum) mainly includes Havana, East Indian, and European tobaccos. The other key species are:
Nicotiana Persica. Grown in Persia. This has a white flower and the leaves almost enwrap the stem. It is used almost exclusively as a pipe-smoking tobacco. Some claim that this is only a variant of N. Tabacum.
Nicotiana Persica. Grown in Persia. This plant has white flowers and the leaves nearly wrap around the stem. It is primarily used as a tobacco for pipe smoking. Some people argue that this is just a variation of N. Tabacum.
Nicotiana Repanda. This is a species of Cuban tobacco entirely different from that grown in the Havana district. It is also called Yara.
Nicotiana Repanda. This is a type of Cuban tobacco that's completely different from the kind grown in the Havana area. It's also known as Yara.
Nicotiana Rustica. A kind of wild growing tobacco principally cultivated in Mexico, and which is claimed as the parent of some of the Turkish, Syrian and Latakia tobaccos although many authorities claim that these tobaccos belong to the species N. Tabacum. The European tobacco is hardier than the American parent plant. The leaves are smaller.
Nicotiana Rustica. A type of wild tobacco mainly grown in Mexico, which is said to be the ancestor of some Turkish, Syrian, and Latakia tobaccos, although many experts argue that these tobaccos come from the species N. Tabacum. European tobacco is more resilient than its American counterpart. The leaves are smaller.
N. Rustica. Also includes common Hungarian and Turkish tobaccos. There are large and small leaved varieties.
N. Rustica. Also includes typical Hungarian and Turkish tobaccos. There are both large-leaf and small-leaf varieties.
N. Crispa. Grown in Syria and largely in Central Asia. Used as a cigarette tobacco in the Orient.
N. Crispa. Grown in Syria and mainly in Central Asia. Used as cigarette tobacco in the East.
It has been stated above that there are many varieties of N. Tabacum in the U. S. Of these the most important are known to botanists[Pg 18] by the names, Nicotiana Tabacum Macrophylla and Nicotiana Tabacum Angustifolia.
It has been mentioned earlier that there are many types of N. Tabacum in the U.S. The most significant ones are recognized by botanists[Pg 18] as Nicotiana Tabacum Macrophylla and Nicotiana Tabacum Angustifolia.
Maryland tobacco belongs to the Macrophylla variety and there are many other types differing from each other according to shape of the leaf, size of the stalk, etc.
Maryland tobacco is part of the Macrophylla variety, and there are many other types that differ from each other in terms of leaf shape, stalk size, and so on.
Virginian tobacco is of the Angustifolia variety, and of this also there are many different types.
Virginian tobacco is of the Angustifolia variety, and there are many different types of it as well.
Most European and other grown tobaccos have been raised from original plants of the Maryland and Virginian varieties.
Most European and other cultivated tobaccos are derived from the original plants of the Maryland and Virginian varieties.
It should be remembered that there is no essential difference in cigar, pipe smoking or cigarette tobaccos. The differences are physical only. All kinds may be obtained from the same species or even the same variety of the species by suitable culture and crossing.
It’s important to remember that there’s no fundamental difference among cigars, pipe tobacco, or cigarette tobacco. The differences are only physical. All types can come from the same species or even the same variety of that species through proper cultivation and crossbreeding.
REFERENCES
REFERENCES
Anastasia, G. E. Le varietá della Nicotiana Tabacum. Scafati, 1906.
Anastasia, G.E. The Varieties of Nicotiana Tabacum. Scafati, 1906.
Comes, O. Delle razze dei tabacchi. Naples, 1905.
Come, O. On the Varieties of Tobacco. Naples, 1905.
Killebrew, J. B. and Myrick H. Tobacco leaf; its culture and cure, marketing and manufacture. Part I. New York, 1897.
Killebrew, J.B. and Myrick H. Tobacco Leaf: Its Culture and Cure, Marketing and Manufacture. Part I. New York, 1897.
Lock, C. G. W. Tobacco growing, curing, and manufacturing. Chapter I. London and New York, 1886.
Lock, C. G. W. Tobacco Growing, Curing, and Manufacturing. Chapter I. London and New York, 1886.
Wolf, J. Der Tabac. Chapter II. Leipzig, 1912.
Wolf, J. The Tobacco. Chapter II. Leipzig, 1912.
Billings, E. R. Tobacco; its history, varieties, etc. Chapter I. Hartford, Conn., 1875.
Billings, E.R. Tobacco; its history, varieties, etc. Chapter I. Hartford, Conn., 1875.
CHAPTER II
THE CULTIVATION OF THE TOBACCO PLANT
GROWING TOBACCO
Climatic and Soil Conditions. Treatment of the Growing Plant.
Shade Grown Tobacco. Harvesting.
Climate and Soil Conditions. Care for the Growing Plant.
Tobacco Grown in Shade. Harvesting.
THE CULTIVATION OF THE TOBACCO PLANT
THE CULTIVATION OF THE TOBACCO PLANT
A few general facts concerning the culture of the tobacco plant and its treatment until it reaches the hands of the manufacturers will be of interest for the smoker.
A few general facts about the culture of the tobacco plant and how it’s treated until it gets to the manufacturers will be interesting for smokers.
The general principles underlying the culture of tobacco are the same whether it is intended for the cigar, pipe smoking or cigarette trade; but the treatment of the leaf after it is harvested differs considerably.
The basic principles behind growing tobacco are the same no matter if it's for cigars, pipe smoking, or cigarettes; however, how the leaves are processed after harvesting varies a lot.
Tobacco is a perennial plant. It is, however, usually raised each year from seed. The seedlings are usually ready for planting towards the end of May and are generally planted between the last week in May and the middle of June.
Tobacco is a perennial plant. However, it is usually grown each year from seed. The seedlings are typically ready for planting by the end of May and are generally planted between the last week of May and the middle of June.
The successful raising of tobacco depends on four principal factors: (1) the climate, (2) the nature of the soil, (3) the seed, and (4) on the method of culture.
The successful cultivation of tobacco relies on four main factors: (1) the climate, (2) the type of soil, (3) the seed, and (4) the cultivation method.
The climate must be such as to favor rapid growth and therefore must furnish sufficient heat and moisture during the time the plant is growing. The fineness of the texture and the elasticity of the leaf depend on the climate.
The climate needs to be suitable for quick growth and should provide enough heat and moisture while the plant is growing. The smoothness of the texture and the flexibility of the leaf rely on the climate.
On the soil the plant depends for its food, and for the absorption of those chemical [Pg 22]constituents on which depend the burning qualities, the strength and the color.
On the soil, the plant relies for its nutrients and for absorbing the chemical [Pg 22] components that influence its burning qualities, strength, and color.
The physical qualities of the plant, structure and form, thickness of veins, size, shape and distribution of leaves, are derived from the seed.
The physical characteristics of the plant, including its structure and form, the thickness of its veins, and the size, shape, and arrangement of its leaves, come from the seed.
Finally, on the method of cultivation (including the curing process) depends in part the final color, flavor and aroma; the type and trade value; that is to say, on successful culture and harvesting and treatment at the right time and in the best way, must depend the grower’s hopes of the final value of his crop. The quantity of nicotine, essential oils, etc., on which flavor and strength depend, is regulated to the greatest extent by the time of cutting.
Finally, the method of cultivation (including the curing process) partly determines the final color, flavor, and aroma, as well as the type and market value. In other words, the grower's expectations for the final value of their crop rely heavily on successful cultivation, harvesting, and treatment at the right time and in the best way. The amount of nicotine, essential oils, and other factors that influence flavor and strength is mostly controlled by when the plants are cut.
The nature of the soil is a very important matter in the culture of tobacco, for the color of the cured tobacco leaf depends almost entirely on the soil. The light colored leaf is grown on light colored soil and the darker leaf is grown on heavy, dark soil. The best type of soil for the raising of tobacco intended for the cigar trade is a warm, deep, sandy loam which rests on permeable well-drained subsoil. The very light colored yellow tobacco cannot be raised except on light colored, porous soils; and so susceptible is this matter of the coloring of the leaf that it has been noted that the darkening of the soil by a liberal allowance of stable [Pg 23]manure will, on a very light colored soil, change the color of the tobacco leaf from a bright yellow to a mahogany shade. Very light sandy soils or very light loams with clayey subsoils are usually chosen for these light yellow tobaccos. Although by processes subsequent to growth it is possible to darken the color of tobacco leaf, there is no known process that will make a dark leaf light in color.
The type of soil is crucial for growing tobacco because the color of the cured tobacco leaf is mainly determined by the soil. A light-colored leaf comes from light-colored soil, while a darker leaf is produced in heavy, dark soil. The ideal soil for growing tobacco for cigars is a warm, deep, sandy loam that sits on well-drained, permeable subsoil. Very light yellow tobacco can only be grown in light-colored, porous soils; and it's so sensitive to soil color that adding a generous amount of stable manure to very light-colored soil can change the leaf color from bright yellow to a mahogany shade. Typically, very light sandy soils or light loams with clayey subsoils are selected for these light yellow tobaccos. Although there are methods to darken the color of tobacco leaves after they have grown, there is no known way to lighten a dark leaf.
Moreover, the soil must be very fertile and rich in the special substances needed by the growing plant. This is all the more necessary because tobacco is a rapidly growing plant, and reaches its maturity within a few months after its planting. The rapidity of growth therefore demands a rich fertile soil well stored with plant food. Good manuring, or liberal treatment with fertilizers, is essential for keeping such soils in prime condition, because the period of growing must not be extended.
Moreover, the soil needs to be very fertile and rich in the specific nutrients required by the growing plant. This is especially important because tobacco grows quickly and reaches maturity within a few months after being planted. The speed of growth requires a nutrient-rich soil that is well-supplied with essential elements. Good fertilization and generous use of fertilizers are essential to maintain such soils in top condition, as the growing period must not be prolonged.
Tobacco is usually planted in rows, the rows being from three to four feet apart, the usual arrangement being that the plants are generally about 12 or 18 inches apart in the row. Some planters, however, give the plants more room for many reasons, varying the distance between the plants even as much as 30 inches. Cigar leaf tobacco plants are usually placed about 14 inches apart.
Tobacco is typically planted in rows, with the rows spaced three to four feet apart. Usually, the plants are around 12 to 18 inches apart within the row. However, some growers give the plants more space for various reasons, sometimes increasing the distance between the plants to as much as 30 inches. Cigar leaf tobacco plants are generally spaced about 14 inches apart.
[Pg 24]There are various operations necessary during the growth of the plant. The most important of these for our purpose are those known as “priming” or “thinning out” and “cutting.” Priming is usually done when the plant is well advanced in growth, but the time varies with different growers and according to the species. It consists in removing the lower or imperfect leaves from the plant, or these which have in any way become injured from insect or other harmful agencies. As a general rule the larger the number of leaves there is on a plant the lower is the quality of the subsequently cured leaf. An average of about 10 leaves to each plant is what is favored by most growers, and the plants are usually thinned to this extent. Seed buds are removed also at the same time and for the same reason. If the plants are “thinned” late and when they are approaching full growth the leaves removed are not destroyed, but are cured separately and sold as inferior quality and are usually called “primings” or “planters lugs.”
[Pg 24]There are various tasks needed during the plant's growth. The most important ones for our purpose are known as “priming” or “thinning out” and “cutting.” Priming usually happens when the plant is well-developed, but the timing varies among growers and depends on the species. It involves removing the lower or damaged leaves from the plant, or those that have been harmed by insects or other pests. Generally, the more leaves a plant has, the lower the quality of the cured leaf. Most growers prefer an average of about 10 leaves per plant, and they typically thin the plants to achieve this. Seed buds are also removed at the same time for the same reason. If the plants are thinned late, when they're nearly fully grown, the removed leaves aren’t discarded but are instead cured separately and sold as lower-quality leaves, often referred to as “primings” or “planters lugs.”
In the Southern American States the time allowed for the growth and maturing of the plant is somewhat longer than in the eastern and more northerly states where the soil, owing to richer fertilization, favors the rapid growth. Moreover, a stronger quality of tobacco is[Pg 25] wanted and the extra time allows the plant to effect a greater elaboration in its cells of the oils and gums, etc., which contribute particularly to strength and flavor.
In the Southern American states, the time needed for the growth and maturity of the plants is a bit longer compared to the eastern and northern states, where the soil, due to richer fertilization, promotes quicker growth. Additionally, a stronger quality of tobacco is[Pg 25] desired, and the extra time allows the plant to develop more oils and gums, which are important for strength and flavor.
Shade Grown Tobacco
Shade-Grown Tobacco
The matter of rapid growth has, however, its limitations. Too much sunlight is considered a disadvantage. Under such powerful action, nutrition is drawn quickly from the soil and the plants ripen too quickly. Under such circumstances the leaves tend to become heavy bodied and not very large in size. To defeat this tendency and produce large, thin silky leaves for the cigar trade, the grower sometimes covers his field with a tent of cheese-cloth or similar protection from the glare of the sun. The ripening process is thereby slowed and the leaves are thinner, larger and lighter in shade. This method is employed principally in Cuba, Florida and Connecticut where cigar wrapper leaves are produced, and such tobacco is known as shade-grown.
The issue of rapid growth does have its limits. Too much sunlight is seen as a drawback. With such intense exposure, nutrients are quickly depleted from the soil and the plants mature too fast. In these situations, the leaves tend to become thick and not very large. To counter this and create large, thin, silky leaves for cigars, growers sometimes cover their fields with a tent made of cheesecloth or a similar material to shield them from the bright sun. This slows down the ripening process, resulting in thinner, larger, and lighter-colored leaves. This method is mainly used in Cuba, Florida, and Connecticut, where cigar wrapper leaves are grown, and this type of tobacco is called shade-grown.
Tobacco which has been planted out at the end of May or early in June is usually ready for harvesting at the end of August or beginning to middle of September. The actual time of harvesting varies a good deal according to the variety grown and the physical condition [Pg 26]concerned in the growing of the plant. The heavier tobaccos which are intended for the export trade are usually harvested late. The most important operations connected with the culture of the tobacco leaf are the “yellowing” and “curing” processes, and, as these commence with the cutting of the plant, this latter must be done under strictly favorable conditions in order to insure proper results. The cutting must not be done while the sun is very hot, or while there is rain, or before the plant is fully matured. On the other hand, after the plant has reached its maturity, it must not be allowed to continue its growth, which along with other things would be likely to increase its nicotine content which is not desirable. The experienced tobacco grower knows well from the appearance of the plant when it is best fitted for cutting. The leaves become thick and heavy and assume a drooping appearance. They become crisp with a tendency to break easily, and a mottled, spotty look is noticeable on them. The surface becomes gummy and oily; the oily substances increases and exudates as the days pass. When these signs appear the tobacco is cut on the first day when the weather favors. It is usual in most cases to split the stalks down the middle and allow the leaves to wilt, before the stalk is entirely cut through. After sufficient[Pg 27] wilting the leaves are gathered in piles and exposed to the action of the sunlight; or they are stuck by the stalks on poles or framework and so exposed that the sun and air have free access to all parts. This is the best and most approved practice. “Yellowing” of the leaf is very rapid after the plant is cut; it is the natural effect due to cutting off the food supply of the leaf and the consequent slow death of the vitality of the cells. It must be remembered that the leaves are large, varying in size (according to species) from 12 inches to over 2 feet in length. Such a leaf needs a large quantity of food and the sudden cutting off of the supply effects a rapid change in appearance. The leaves are allowed to hang on the scaffolds 3 to 5 days until they are fully yellowed. They are then ready for the process of “curing,” which is the most important operation connected with cultivation. The “curing” and “fermentation” which the leaf undergoes are chemical actions and their success depends on the proper method of “yellowing.” The leaves must not be exposed to the sun too long, because the cells would lose their vitality too rapidly and be unfitted for the new part they have to play in the curing process. The chemical changes will be explained in subsequent chapters. It is desired that the reader should[Pg 28] understand that to ensure a successful final issue the planter has need to watch continuously and to know all the conditions. If the leaf does not “yellow” properly no amount of after care in curing will make up for this deficiency. In tobacco growing as in everything else, to ensure final high quality each step in the process must be executed with skill, care, and judgment.
Tobacco that is planted at the end of May or early June is usually ready to be harvested by the end of August or the beginning to middle of September. The actual harvesting time varies quite a bit depending on the variety and the conditions [Pg 26] involved in growing the plant. Heavier tobaccos meant for export are typically harvested later. The key operations in growing tobacco include the “yellowing” and “curing” processes, which start when the plant is cut. This cutting must be done under favorable conditions to ensure good results. It shouldn't happen while the sun is very hot, during rain, or before the plant is fully matured. Once the plant is mature, it shouldn’t be allowed to grow any longer, as this could increase its nicotine content, which isn't desirable. Experienced tobacco growers can tell when the plant is ready to be cut just by looking at it. The leaves become thick and heavy, droop, and become brittle with a tendency to break easily. They also develop a mottled, spotty appearance, and the surface becomes gummy and oily, with the oily substances increasing and oozing out as time passes. When these signs appear, the tobacco is cut on the first favorable day. Typically, the stalks are split down the middle to allow the leaves to wilt before the stalks are completely cut through. After enough [Pg 27] wilting, the leaves are piled up and exposed to sunlight; or they are hung by the stalks on poles or frameworks so that sun and air can reach all parts. This is the best and most approved method. The “yellowing” of the leaf happens quickly after cutting, as it's a natural result of cutting off the leaf's food supply, leading to the gradual death of the cells. It’s important to note that the leaves are large, varying in size from 12 inches to over 2 feet long. A leaf this size requires a lot of nutrients, and abruptly cutting off the supply causes a rapid change in appearance. The leaves are allowed to hang on scaffolds for 3 to 5 days until they are fully yellowed, and then they are ready for the “curing” process, which is crucial in cultivation. The “curing” and “fermentation” the leaf undergoes involve chemical changes, and their success relies heavily on how well the “yellowing” was done. The leaves shouldn’t be exposed to the sun for too long, as the cells would lose their vitality too quickly, making them unsuitable for their role in the curing process. The chemical changes will be discussed in later chapters. It’s important for the reader to understand that to ensure a successful outcome, the grower must continuously monitor and know all conditions. If the leaf doesn’t “yellow” correctly, no amount of care during curing can fix this issue. Like everything else, achieving high quality in tobacco growing requires skill, care, and good judgment at every step of the process.
The yield of tobacco per acre varies from about 300 lbs. of leaf in the southern states to 1,000 lbs. or more in the eastern. 700 to 800 lbs. per acre is considered a good average crop.
The tobacco yield per acre ranges from around 300 lbs. of leaf in the southern states to over 1,000 lbs. in the eastern states. A yield of 700 to 800 lbs. per acre is seen as a strong average crop.
REFERENCES
REFERENCES
Killebrew and Myrick. Tobacco leaf; its culture and cure, marketing and manufacturing. Part I. New York, 1897.
Killebrew & Myrick. Tobacco Leaf: Its Cultivation and Curing, Marketing and Manufacturing. Part I. New York, 1897.
Billings, E. R. Tobacco; its history, varieties, culture, etc. Chapter XIII. Hartford, Conn., 1875.
Billings, E. R. Tobacco; its history, varieties, culture, etc. Chapter XIII. Hartford, Conn., 1875.
Laurent, L. Le tabac; sa culture et sa préparation production et consummation dans les divers pays. Paris, 1900.
Laurent, L. Tobacco; its cultivation, preparation, production, and consumption in different countries. Paris, 1900.
U. S. Dept. of Agriculture. Farmers’ Bulletins Nos. 6 and 60. Tobacco.
United States Department of Agriculture. Farmers' Bulletins Nos. 6 and 60. Tobacco.
U. S. Dept. of Agriculture. Bureau of Plant Industry. Bulletin 96. Tobacco breeding.
U.S. Department of Agriculture. Bureau of Plant Industry. Bulletin 96. Tobacco breeding.
CHAPTER III
THE WORLD’S PRODUCTION OF TOBACCO
GLOBAL TOBACCO PRODUCTION
Total production. Countries which cultivate tobacco.
Production in the New World other than in the United States.
Total production. Countries that cultivate tobacco.
Production in the New World excluding the United States.
THE WORLD’S PRODUCTION OF TOBACCO
Global Tobacco Production
The world’s recorded annual crop of tobacco leaf is over one million tons. The latest government figures available are those for 1912 and 1913, and show 2,696,401,379 and 2,722,190,030 lbs. respectively. Of this amount Asia and America produce each about 350,000 tons, Europe about 250,000 tons and the rest of the world the balance.
The world's recorded annual crop of tobacco leaves exceeds one million tons. The most recent government figures available are from 1912 and 1913, showing 2,696,401,379 and 2,722,190,030 pounds, respectively. Of this total, Asia and America each produce about 350,000 tons, Europe around 250,000 tons, and the rest of the world makes up the difference.
The details of the production in the U. S. will be given in the next chapter.
The details of the production in the U.S. will be provided in the next chapter.
The principal Asiatic countries which produce tobacco are China, Japan, Afghanistan, India, Persia and Asia Minor. China has an immense production and consumption of tobacco, a large portion of which finds its way into western markets for the cigar and cigarette trade and is sold as “Turkish” tobacco. No figures as to production are available.
The main Asian countries that produce tobacco are China, Japan, Afghanistan, India, Persia, and Asia Minor. China has a huge production and consumption of tobacco, with a significant amount being exported to western markets for the cigar and cigarette trade, where it is sold as “Turkish” tobacco. No production figures are available.
British India and Afghanistan produce good tobacco, a lot of which is used in Hindustan and other Eastern countries.
British India and Afghanistan produce quality tobacco, much of which is used in Hindustan and other Eastern countries.
The Persian crop is known to be large, but there are no available records of it. In Persia most of the tobacco raised is of the species known as Nicotiana Persica. This is generally known under its trade name of Tumbach or[Pg 32] Tumbeki (or more correctly Teymbeki). This is the common Eastern name for tobacco. It is considerably exported to the countries in the neighborhood of Persia and is smoked in the pipe known as the Narghilli. In this pipe the teymbeki burns in contact with a piece of incandescent charcoal. The smoker draws the vapor through a flexible tube which passes to the bottom of a water chamber and passes above it, whence it is inhaled. The narghili is technically a water pipe. The teymbeki is very strong in nicotine, containing up to 5 or 6 per cent.
The Persian tobacco crop is recognized for its size, but there are no existing records of it. In Persia, most of the tobacco grown is the species called Nicotiana Persica. This is commonly known by its trade name, Tumbach, or [Pg 32] Tumbeki (more accurately, Teymbeki). This is the usual Eastern term for tobacco. It is significantly exported to nearby countries and is smoked using a pipe called the Narghilli. In this pipe, the teymbeki is burned in contact with a piece of glowing charcoal. The smoker inhales the vapor through a flexible tube that goes to the bottom of a water chamber and rises above it, from where it is inhaled. The narghili is essentially a water pipe. The teymbeki has a high nicotine content, containing up to 5 or 6 percent.
Japan produces large and medium size leaf of good color but poor in quality. It is generally used for pipe and cigarette trade.
Japan produces large and medium-sized leaves that have good color but are low in quality. They are typically used in the pipe and cigarette trade.
The statistics of production for Asia are extremely unreliable. When we consider the teeming populations of China, India and other Eastern countries and the prevalence of the smoking habit, it is very probable that the figure of production (350,000 tons annually) is much under the mark. There is very little export of tobacco from the United States or Europe to the East. Whatever tobacco is consumed there is mostly of its own production.
The production statistics for Asia are highly unreliable. Given the massive populations of China, India, and other Eastern countries, along with the widespread smoking habit, it's likely that the production figure (350,000 tons annually) is much lower than the actual amount. There is very little tobacco exported from the United States or Europe to the East. Most of the tobacco consumed there is produced locally.
European Production of Tobacco
Tobacco Production in Europe
In Europe the principal tobacco producing countries are Germany, France, Austria, Russia, Italy and Turkey.
In Europe, the main tobacco-producing countries are Germany, France, Austria, Russia, Italy, and Turkey.
[Pg 33]Germany has nearly 40,000 acres under tobacco cultivation in Rhenish Bavaria, Baden, Hesse, and Alsace-Lorraine. The annual production is about 50 to 70 million lbs.; and in addition nearly 3 times that much is imported. German home grown leaf is medium to large in size, of fair body, heavy and with coarse veins. It is used for cigar filler and pipe, but is not suited for cigar wrappers. (See the chapter on cigars.)
[Pg 33]Germany has nearly 40,000 acres dedicated to tobacco farming in Rhenish Bavaria, Baden, Hesse, and Alsace-Lorraine. The annual production is around 50 to 70 million pounds, and almost three times that amount is imported. Locally grown tobacco leaves are medium to large, fairly robust, dense, and have coarse veins. They are used for cigar fillings and pipe tobacco, but they aren’t suitable for cigar wraps. (See the chapter on cigars.)
French tobacco is raised from Virginia seed. It is dark, coarse and heavy and is suitable for plug and snuff making only.
French tobacco comes from Virginia seeds. It's dark, rough, and heavy, making it only suitable for producing plugs and snuff.
Russia is the largest European producer. Russian tobacco leaf is very large in size and like the French is coarse, dark and heavy and is only fit for plug and snuff making. There is a lighter kind grown from Turkish seed in South Russia which is fit for cigarettes.
Russia is the largest producer of tobacco in Europe. Russian tobacco leaves are quite large and, similar to the French variety, are coarse, dark, and heavy, making them suitable only for plug and snuff production. A lighter type, grown from Turkish seeds in southern Russia, is suitable for cigarettes.
Italy has made several attempts to cultivate good tobacco, and several different types are produced. A dark heavy leaf is grown from Virginia seed, and a type from Kentucky seed is also produced. These types are suitable to the dark, heavy fertile soils of Middle and North Italy. In the lighter sandy soil of the south, the varieties grown are raised from Turkish seed and are similar in appearance and quality to the genuine Turkish tobacco.
Italy has made several efforts to grow quality tobacco, producing a variety of types. A dark, thick leaf comes from Virginia seed, and another type is grown from Kentucky seed. These varieties thrive in the rich, dark soils of Central and Northern Italy. In the lighter sandy soils of the south, the tobacco is grown from Turkish seed and resembles the authentic Turkish tobacco in both appearance and quality.
[Pg 34]Hungary is a heavy grower of tobacco and produces some of the best in Europe. There is a heavy dark type, of a rich brown color, medium sized leaf with small and thin veins, which is used in cigar manufacture. A small bright yellow leaf is also grown, poor in quality and aroma, which is used for pipe smoking and cigarettes.
[Pg 34]Hungary is a major producer of tobacco and makes some of the best in Europe. There is a dark variety, featuring a rich brown color, medium-sized leaves with small, thin veins, which is used for making cigars. A smaller, bright yellow leaf is also grown, which is of lower quality and aroma, used for pipe smoking and cigarettes.
The most important foreign tobacco as regards U. S. consumers is that known as Turkish. The leaves of the Turkish tobacco are small (about 8″ long), clear yellow in color, and have a special aroma, which renders them peculiarly suitable for the manufacturing of cigarettes. The principal producing centers are Macedonia, Albania, Syria, Palestine and Trebizond, that raised in Macedonia being per-haps the most celebrated. Just like the Cuban leaf, the very best grades of Turkish tobacco are not exported, but are kept for domestic consumption.
The most important foreign tobacco for U.S. consumers is Turkish tobacco. The leaves are small (about 8 inches long), bright yellow, and have a unique aroma that makes them particularly well-suited for making cigarettes. The main production areas are Macedonia, Albania, Syria, Palestine, and Trebizond, with the tobacco from Macedonia being the most famous. Similar to Cuban tobacco, the highest quality Turkish tobacco is not exported but reserved for the domestic market.
Latakia tobacco is produced in the northern part of Syria. This tobacco has a very small nicotine content. It is produced by a special fabrication and is in very great demand as an ingredient of pipe smoking mixtures.
Latakia tobacco is grown in northern Syria. This tobacco has a very low nicotine content. It's made using a unique process and is highly sought after as an ingredient in pipe smoking blends.
The District of Cavalla in the Province of Roumelia, is one of the most important tobacco centers in the Turkish Empire. There are[Pg 35] about 75,000 acres under tobacco cultivation and the annual production is about 10,000,000 lbs. The American Tobacco Co. has a large establishment here through which it purchases its Turkish leaf, amounting to over 6 million lbs. yearly, for the manufacture of Turkish cigarettes, etc.
The District of Cavalla in the Province of Roumelia is one of the most important tobacco centers in the Turkish Empire. There are[Pg 35] about 75,000 acres dedicated to tobacco cultivation, and the annual production is around 10,000,000 lbs. The American Tobacco Co. has a large facility here, where it buys over 6 million lbs of Turkish leaf each year for making Turkish cigarettes and other products.
The total importation of Turkish leaf into the United States during 1913 was:
The total import of Turkish leaf into the United States in 1913 was:
From Turkey in Europe | 10,816,048 lbs. | |
From Turkey in Asia | 18,955,295 lbs. |
Greece and the Balkan States produce tobacco which partakes of the qualities of Hungarian and Turkish, the Grecian leaf being used a good deal as a substitute for genuine Turkish tobacco.
Greece and the Balkan States grow tobacco that has characteristics similar to Hungarian and Turkish varieties, with Greek tobacco often serving as a substitute for real Turkish tobacco.
Tobacco produced in the New World other than in United States
Tobacco grown in the New World, excluding the United States
The government of Canada has given a lot of attention to experiments in connection with the growth of tobacco in the Dominion, but only with indifferent success. The leaf is raised principally from Virginian seed, but is large and coarse and is only fit for inferior plug and snuff making.
The Canadian government has focused a lot on experiments related to tobacco growth in the country, but the results have been mediocre. The tobacco is mainly grown from Virginian seeds, but it’s large, coarse, and only suitable for low-quality plug and snuff products.
Cuban Tobacco. The tobacco raised in the Island of Cuba is the most celebrated in the world for cigar making. The leaf is of a rich,[Pg 36] brown color; narrow and small in size, varying from 8 to 18 inches in length. Its richness of flavor and the peculiar aroma are its chief characteristics. Cuba produces annually about 300,000 to 500,000 bales of tobacco varying in weight from 80 to 150 lbs. per bale, nearly one-half of which is exported to the United States alone.
Cuban Tobacco. The tobacco grown in Cuba is the most famous in the world for making cigars. The leaves are a rich,[Pg 36] brown color; they are narrow and small, typically ranging from 8 to 18 inches in length. Its rich flavor and distinctive aroma are its main features. Cuba produces around 300,000 to 500,000 bales of tobacco each year, with each bale weighing between 80 to 150 lbs, and nearly half of this is exported to the United States alone.
The importation of Cuban leaf into the United States over a series of years is shown below:
The importation of Cuban tobacco into the United States over several years is shown below:
Cuban leaf imports into the U. S. (lbs.)
Cuban tobacco imports into the U.S. (lbs.)
1855-1860 | == | 7,014,485 | ||
1871-1875 | == | 8,985,465 | Average | |
1886-1890 | == | 15,532,075 | Yearly | |
1896-1900 | == | 10,811,173 | Imports. | |
1901-1905 | == | 24,048,837 | ||
Year 1914 | == | 26,617,545 | ||
The value in 1900 was $ 8,478,251 | ||||
The value in 1905 was $13,348,000 |
The Province of Pinar del Rio produces about 70 per cent of the entire Cuban crop. In this is the District of Vuelto Abajo which is celebrated the world over for the very finest cigar tobacco. The District of Habana or Havana produces about 13 per cent and Santa Clara about 13 per cent. The Cubans themselves favor the dark “Maduro” fully ripened leaves. At present a good deal of Cuban cigar[Pg 37] leaf is grown under shade with the result that although when fully mature they are light in color, they are rich in flavor.
The Province of Pinar del Rio grows about 70 percent of the entire Cuban crop. Within this area is the District of Vuelto Abajo, which is famous worldwide for producing the best cigar tobacco. The District of Habana, or Havana, accounts for about 13 percent of the crop, and Santa Clara also contributes around 13 percent. The locals prefer the dark “Maduro” fully ripened leaves. Currently, a significant amount of Cuban cigar[Pg 37] leaf is cultivated in the shade, so while they are light in color when fully mature, they have a rich flavor.
The value of the cigar leaf imported by the U. S. from Cuba averages at present about 14 or 15 million dollars annually.
The value of the cigar leaf imported by the U.S. from Cuba currently averages around 14 to 15 million dollars each year.
Porto Rican leaf possesses many of the qualities of good Havana leaf, and like the latter is used in cigar manufacture. The annual production is about 120,000 bales. The U. S. imports from 4 to 5 million lbs. annually. Further particulars regarding Cuban and Porto Rican leaf will be given in the chapters concerning cigars.
Porto Rican leaf has many of the same qualities as good Havana leaf and is also used in making cigars. The annual production is around 120,000 bales. The U.S. imports about 4 to 5 million pounds each year. More details about Cuban and Porto Rican leaf will be provided in the chapters about cigars.
Mexico produces a tobacco, large as to leaf, dark in color, with heavy body and coarse veins. The tobacco is very strong in flavor. The best grades approach the Cuban tobacco in quality and are imported and used as substitutes for it. The U. S. importation is small. The annual production is about 34 million lbs. The best quality is produced in the neighborhood of Vera Cruz, and only a small portion is exported, principally to Cuba.
Mexico produces a type of tobacco that has large leaves, is dark in color, has a heavy body, and has thick veins. The flavor of this tobacco is quite strong. The top grades are nearly on par with Cuban tobacco in quality and are imported to be used as substitutes. The amount imported to the U.S. is small. The annual production is around 34 million pounds. The highest quality is grown near Vera Cruz, and only a small percentage is exported, mainly to Cuba.
Brazilian tobacco leaf is brown in color, medium in size, and medium in body. It possesses fair qualities as a cigar tobacco, for which purpose it is generally used in South America, which is its principal market.
Brazilian tobacco leaf is brown, medium-sized, and has a medium body. It has decent qualities for cigar tobacco, which is its primary use in South America, the main market for it.
East Indian and Philippine Tobacco
East Indian and Philippine Tobacco
The Dutch East Indies (Sumatra and the adjacent islands) produce yearly about 180 million lbs. of tobacco, all of which is used in the cigar business. Of this the United States takes about from 30,000 to 40,000 bales of Sumatran leaf, about 5½ million lbs. About 2 lbs. of this leaf wraps 1,000 cigars.
The Dutch East Indies (Sumatra and the nearby islands) produce about 180 million pounds of tobacco each year, all of which is used in the cigar industry. The United States imports around 30,000 to 40,000 bales of Sumatran leaf, totaling about 5.5 million pounds. Approximately 2 pounds of this leaf are needed to wrap 1,000 cigars.
The Philippine Islands produce from 50 to 100 million lbs., of tobacco annually. The crop for 1913 was 101,544,736 lbs. The imports into the United States are principally as manufactured cigars by special arrangements which will be referred to later on in the chapter on cigars.
The Philippine Islands produce between 50 to 100 million pounds of tobacco each year. The crop for 1913 was 101,544,736 pounds. The imports to the United States mainly consist of manufactured cigars through special arrangements that will be discussed later in the chapter on cigars.
CHAPTER IV
PRODUCTION OF TOBACCO IN THE UNITED STATES
TOBACCO PRODUCTION IN THE UNITED STATES
Total production. Amount produced by the different States.
Varieties
raised. Description of the different varieties.
Total production. Amount produced by the different States.
Varieties grown. Description of the various types.
PRODUCTION OF TOBACCO LEAF IN THE UNITED STATES
PRODUCTION OF TOBACCO LEAF IN THE UNITED STATES
The amount of tobacco leaf raised annually in the United States varies from 700 million lbs. to 1,000 million lbs. Thus, according to the Government Statistical Reports, the production in 1909 was 1,055,764,806 lbs., being an unusually high figure. The production in 1913 was 953,734,000 lbs. and in 1914, 1,034,679,000 lbs. The average crop may be taken as about 800 million lbs., about half of which is exported as leaf, and the other half manufactured in the U. S. into cigars, smoking and chewing tobaccos, etc., and consumed in the U. S. To produce this immense crop over one million acres of rich, fertile land is under culture, the actual government figures for 1913 being 1,216,000 acres, and for 1914, 1,224,000, and the value of the raw crop is from 80 to 100 million dollars, which works out to an average value of from 10 to 12 cents per lb. The cost of producing the best grades of cigar leaf in the Eastern States is from 8 to 10 cents per lb.; in Wisconsin from 5 to 10 cents. The price paid to the growers is from 5 to 15 cents, except for the highest grades (cigar wrapper leaf) for which special prices, up to 40 or 50[Pg 42] cents, may be paid. Smoking and chewing leaf of average grade fetches from 6 to 7 cents per lb.
The amount of tobacco leaves produced each year in the United States ranges from 700 million to 1 billion pounds. According to Government Statistical Reports, production in 1909 was an unusually high 1,055,764,806 pounds. In 1913, it was 953,734,000 pounds, and in 1914, it reached 1,034,679,000 pounds. The average crop is about 800 million pounds, with roughly half exported as leaf and the other half processed in the U.S. into cigars, smoking, and chewing tobacco, among other products, consumed domestically. To produce this large crop, over one million acres of rich, fertile land is cultivated, with government figures showing 1,216,000 acres in 1913 and 1,224,000 acres in 1914. The raw crop's value ranges from 80 to 100 million dollars, averaging around 10 to 12 cents per pound. In the Eastern States, the cost of producing the best grades of cigar leaf is between 8 to 10 cents per pound; in Wisconsin, it's between 5 to 10 cents. Growers are paid 5 to 15 cents, except for the highest grades (cigar wrapper leaf), which may fetch special prices of up to 40 or 50 cents. Smoking and chewing leaf of average quality sells for about 6 to 7 cents per pound.
From these figures it will be seen that the agricultural industry of tobacco growing is a most important one, and it is constantly increasing both in the quantity produced and in value. About 45 of the states in the Union are engaged in tobacco culture, the principal states and the quantities produced being as follows (for 1914):
From these figures, it’s clear that the tobacco growing industry is very important, and it’s continually growing both in quantity and value. About 45 states in the Union are involved in tobacco farming, with the main states and the amounts produced listed as follows (for 1914):
Kentucky | 364 | million | lbs. | |
North Carolina | 172 | " | " | |
Virginia | 114 | " | " | |
Tennessee | 63 | " | " | |
Ohio | 78 | " | " | |
Wisconsin | 54 | " | " | |
Pennsylvania | 48 | " | " | |
Connecticut | 35 | " | " | |
South Carolina | 36 | " | " | |
Maryland | 17 | " | " | |
Indiana | 12 | " | " | |
Massachusetts | 11 | " | " | |
Other states | 30 | " | " | |
Total | 1034 | " | " |
Virginia was, until recently, the premier tobacco state. Tobacco was first raised in Virginia about 1619 when the quantity [Pg 43]produced was about 20,000 lbs. By 1753 the records show that over 50 million lbs. were raised annually, all of which was exported. At this time and until about the period of the Civil War, Europe was dependant more than now on America for her tobacco supply, as at present a considerable part of her needs is supplied by her own production. Tobacco was not grown in Kentucky till about 1785 and a little later in Tennessee and Ohio. The cigar leaf industry of the New England States did not come into activity till about 1830. Cigar leaf was raised in Florida about the same time but was discontinued and was not resumed till fifty years later.
Virginia was, until recently, the leading tobacco state. Tobacco was first grown in Virginia around 1619, when the amount produced was about 20,000 lbs. By 1753, records show that over 50 million lbs. were grown each year, all of which was exported. At this time, and until the Civil War, Europe depended more on America for its tobacco supply than it does now, as a significant portion of its needs is met by local production. Tobacco wasn’t cultivated in Kentucky until around 1785, and a little later in Tennessee and Ohio. The cigar leaf industry in the New England States didn’t start until about 1830. Cigar leaf was grown in Florida around the same time but was stopped and didn’t resume until fifty years later.
Virginia, Maryland and Tennessee have shown a declining annual production since the Civil War. Thus Virginia in 1860 produced nearly 30 per cent of the total U. S. crop, whereas at present it produces about 12 per cent only. The causes which have contributed to the decline in tobacco culture in the Southern States are the loss of slave labor as well as the loss of capital during the war; more particularly it is due to the impoverishing of the soil without adequate fertilization. Thus with superior fertilization and intensive methods, Massachusetts and Connecticut give 1,750 lbs. to the acre, as against 870 and 580 lbs. for[Pg 44] Kentucky and Tennessee. In Massachusetts and Connecticut the cost for fertilizer per farm is $227 as against $17 and $4 respectively in Tennessee and Kentucky. Moreover, the Northern farms are smaller than the Southern.
Virginia, Maryland, and Tennessee have experienced a decline in yearly tobacco production since the Civil War. Back in 1860, Virginia produced almost 30 percent of the total U.S. tobacco crop, but today it only produces about 12 percent. The decline in tobacco farming in the Southern States is mainly due to the loss of slave labor and capital during the war, but it is especially linked to the depletion of soil without sufficient fertilization. With better fertilization and more intensive farming methods, Massachusetts and Connecticut yield 1,750 lbs. per acre, compared to 870 lbs. for Kentucky and 580 lbs. for Tennessee. In Massachusetts and Connecticut, the average cost for fertilizer per farm is $227, while in Tennessee and Kentucky, it’s only $17 and $4, respectively. Additionally, Northern farms are smaller than Southern ones.
Varieties of Tobacco raised
Types of Tobacco grown
The varieties of tobacco raised are mainly of the native American species; but in some states (in Florida particularly) plants are raised from imported Cuban and Sumatran seed, in an endeavor to produce cigar leaf equal in quality to the leaf now imported from these places which commands a high price in the trade. The raising of cigar leaf tobacco from foreign seed began in Florida about 1902; and, although on the whole, the cultivation has been very successful, yet it cannot be said that the hoped for results have been fully realized. It was claimed for the Florida grown Sumatran leaf that in many ways it surpassed the native Sumatran leaf. Certainly the experimental samples of this Florida leaf exhibited by the U. S. at the Paris Exposition of 1900 were judged to be superior both in appearance and style and other matters. However, this superiority does not appear to have been upheld, for in the trade the native grown Sumatran leaf still holds its rank.
The types of tobacco grown are mostly of the native American variety; however, in some states, especially Florida, plants are cultivated from imported Cuban and Sumatran seeds in an effort to produce cigar leaves that match the quality of those currently imported from these regions, which are sold at a high price in the market. The cultivation of cigar leaf tobacco from foreign seeds started in Florida around 1902, and while overall, the cultivation has been quite successful, it has not fully met the expected outcomes. It was claimed that the Sumatran leaf grown in Florida had advantages over the native Sumatran leaf in many respects. The experimental samples of this Florida leaf presented by the U.S. at the Paris Exposition of 1900 were considered superior in appearance, style, and other aspects. However, this superiority seems not to have been sustained, as in the market, the native-grown Sumatran leaf still maintains its status.
[Pg 45]Similarly in the case of Florida grown Cuban leaf which at the same Exposition was voted as equal to the native. The native leaf, however, whether due to the soil or not, has a finer flavor and aroma, and the best grades of native grown Cuban tobacco still hold the palm as the premier cigar tobacco of the world.
[Pg 45]In the same way, Florida-grown Cuban leaf was also rated as equal to the native leaf at that Exposition. However, the native leaf, whether because of the soil or not, has a better flavor and aroma, and the top grades of locally grown Cuban tobacco are still recognized as the best cigar tobacco in the world.
The leaf raised in Connecticut, Pennsylvania, Ohio, Wisconsin, Florida, Massachusetts, and New York State, is generally used for the cigar trade (see the chapters on cigars). Ohio and Florida (Cuban seed) leaf mostly used as cigar fillers; Connecticut and Florida (Sumatran seed), Pennsylvania and New York leaf mostly as wrapper leaf, the inferior leaves being used as fillers. Wisconsin leaf is used principally as cigar binder leaf. The total amount of cigar tobacco raised is roughly about one-fifth of the entire tobacco crop.
The tobacco leaf grown in Connecticut, Pennsylvania, Ohio, Wisconsin, Florida, Massachusetts, and New York is primarily used for the cigar industry (see the chapters on cigars). Ohio and Florida (Cuban seed) leaves are mostly used as cigar fillers; Connecticut and Florida (Sumatran seed), along with Pennsylvania and New York leaves, are mostly used as wrapper leaves, while the lower-quality leaves are utilized as fillers. Wisconsin leaves are mainly used for cigar binder leaf. The total amount of cigar tobacco produced is roughly one-fifth of the entire tobacco crop.
The southern states produce the bulk of the export dark, heavy leaf. West Kentucky and Tennessee particularly, as well as Virginia, the Carolinas and Maryland, export considerable quantities. This tobacco is fire-cured. For the domestic trade, however, (pipe-smoking, chewing and cigarettes) the tobacco grown in these states is flue-cured, the principal product being of a bright yellow color, characteristic of this region.
The southern states supply most of the heavy, dark tobacco for export. West Kentucky and Tennessee, along with Virginia, the Carolinas, and Maryland, export large amounts. This tobacco is fire-cured. For the domestic market, though, the tobacco grown in these states is flue-cured, with the main product being a bright yellow color that's typical of this area.
[Pg 46]This “yellow tobacco belt” extends from the coast across to the North Carolina Mountains, through Tennessee and South Carolina, Southern Virginia, Southern Ohio, a few parts of Kentucky, some of Eastern Missouri and Arkansas. The best soils are those which are of a light sandy or sandy clay nature and they need not be deep or rich. In this region the very finest pipe-smoking tobaccos are raised. Whilst the U. S. has not been able to produce a cigar wrapper tobacco equal in quality to the Cuban or Sumatran, in pipe-smoking and cigarette tobaccos she stands without a rival.
[Pg 46]The “yellow tobacco belt” stretches from the coast all the way to the North Carolina Mountains, passing through Tennessee, South Carolina, Southern Virginia, Southern Ohio, parts of Kentucky, and some areas in Eastern Missouri and Arkansas. The best soils are light sandy or sandy clay, and they don’t need to be deep or rich. This region produces the finest pipe-smoking tobaccos. While the U.S. hasn’t been able to produce a cigar wrapper tobacco that matches the quality of Cuban or Sumatran, it is unmatched in pipe-smoking and cigarette tobaccos.
There are about 100 different varieties of tobacco grown in the U. S., many of these being approximately the same and are synonymous. Subvarieties are easily obtained by crossing. Cross-fertilization easily takes place where different strains are produced in the same locality. On this account when it is desired to keep a variety pure, care must be exerted to see that seed is collected from pure strains. On the other hand, the ease of producing new varieties gives opportunity to the various State Agricultural Experimental Stations to try out new strains for desirable qualities. The enumeration of the differences between the various varieties would be tiresome for the reader, yet it will be well for the user of tobacco to know some of these[Pg 47] varieties, their characteristics and other particulars concerning them. These are given here:
There are about 100 different types of tobacco grown in the U.S., many of which are quite similar and interchangeable. You can easily create subvarieties by crossbreeding. Cross-fertilization happens naturally when different strains grow in the same area. Because of this, when it's important to keep a variety pure, you need to ensure that seeds are collected from pure strains. On the flip side, the simplicity of creating new varieties allows various State Agricultural Experimental Stations to test new strains for desirable traits. Listing all the differences between the various types would bore the reader, yet it’s useful for tobacco users to know some of these[Pg 47] varieties, their features, and other details about them. This information is provided here:
Leading Varieties of American Tobaccos
Top American Tobacco Varieties
Burley. The variety known as White Burley has a long broad leaf, whitish in appearance when growing. The points of the leaf hang down towards the ground when growing, often even touching the ground. The leaf is thin in texture, has a mild flavor, low nicotine content and good absorbing qualities. It is one of the most popular tobaccos in the U. S. and is used for pipe-smoking and chewing tobaccos and cigarettes. It cures to a bright yellow brown color.
Burley The type called White Burley has long, wide leaves that look whitish while they grow. The tips of the leaves droop down toward the ground, often touching it. The leaves are thin, have a mild flavor, low nicotine levels, and good absorption properties. It's one of the most popular tobaccos in the U.S. and is used for pipe smoking, chewing tobacco, and cigarettes. It dries to a bright yellow-brown color.
There is a variety known as Red Burley which has a thin leaf narrowing from center to top. The leaves are of a characteristic cinnamon color and are more elastic than those of White Burley. Burley tobacco is raised principally in Ohio, Kentucky, Virginia, Maryland, Missouri and Indiana.
There is a variety called Red Burley that has a thin leaf that gets narrower from the center to the top. The leaves have a distinct cinnamon color and are more flexible than those of White Burley. Burley tobacco is mainly grown in Ohio, Kentucky, Virginia, Maryland, Missouri, and Indiana.
Connecticut Seedleaf. Large, strong leaves, thin and elastic, silky in texture, small fibers, sweetish taste and light in color.
Connecticut Seedleaf. Big, sturdy leaves that are thin and flexible, soft to the touch, with tiny fibers, a slightly sweet flavor, and a light color.
Used in the cigar trade as fillers and wrappers and grown in New England, [Pg 48]Pennsylvania, Ohio, and to a smaller extent in Wisconsin, Minnesota, Indiana, Illinois and Florida.
Used in the cigar industry as fillers and wrappers, and grown in New England, [Pg 48]Pennsylvania, Ohio, and to a lesser extent in Wisconsin, Minnesota, Indiana, Illinois, and Florida.
Connecticut Broadleaf. A modification of the above, the leaves being broader in proportion to their length. They are up to 35 inches long and 22 inches wide. Largely used in the cigar trade as filler and wrappers. Both the Connecticut Seedleaf and Broadleaf are superior to the imported Sumatran leaf in flavor and aroma, but are inferior in elasticity and covering qualities.
Connecticut Broadleaf Tobacco. A variation of the above, with leaves that are broader compared to their length. They can reach up to 35 inches long and 22 inches wide. Primarily used in the cigar industry as filler and wrappers. Both the Connecticut Seedleaf and Broadleaf have better flavor and aroma than the imported Sumatran leaf, but they fall short in elasticity and covering quality.
Grown principally in Connecticut and New York States.
Grown mainly in Connecticut and New York.
Orinoco. There are 3 varieties of this name: (1) Short Orinoco. Broad leaf, upright growth and open habit, light colored, much ruffled. Grown in Virginia and Missouri. (2) Big Orinoco. Short, broad leaf. Grown in Virginia, Missouri, North Carolina, Tennessee and West Virginia. (3) Yellow Orinoco. Long, narrow, tapering leaf with fine texture. The sweetest variety grown. Grown in Virginia, Maryland, North Carolina, Tennessee, West Virginia and Missouri.
Orinoco River. There are 3 types of this name: (1) Short Orinoco. It has broad leaves, grows upright, and has an open shape, with a light color and a ruffled appearance. It's grown in Virginia and Missouri. (2) Big Orinoco. It features short, broad leaves. This variety is grown in Virginia, Missouri, North Carolina, Tennessee, and West Virginia. (3) Yellow Orinoco. It has long, narrow, tapering leaves with a fine texture. This is the sweetest variety available. It's grown in Virginia, Maryland, North Carolina, Tennessee, West Virginia, and Missouri.
[Pg 49]Orinoco tobacco leaf is used largely for plug and smoking tobaccos and for the export trade.
[Pg 49]Orinoco tobacco leaves are mainly used for plug and smoking tobacco, as well as for export.
Virginian. Sun and air-cured tobacco. Leaf is medium in size. Very bright brown color. Is rich in gums and oils which makes it sweet and fragrant and gives it a pleasant taste. Hence it is a favorite chewing tobacco.
Virginian. Sun and air-cured tobacco. The leaves are medium-sized and have a very bright brown color. They're rich in gums and oils, making them sweet and fragrant, which gives them a pleasant taste. That's why it's a popular choice for chewing tobacco.
Pryor. There are several varieties under this name: (1) Medley or White Pryor has a very broad leaf with silky texture and tough fiber. (2) Blue Pryor. Large, long fine leaf and good color. (3) Silky Pryor. A long sharp-pointed leaf; grows thin on the stalk; very tough and pliant. (4) Yellow Pryor. Heavy, wide leaf, fine bright color, tough and weighs well.
Pryor. There are several types under this name: (1) Medley or White Pryor has a very broad leaf with a silky texture and strong fiber. (2) Blue Pryor. Large, long, fine leaf with great color. (3) Silky Pryor. This has a long, sharp-pointed leaf; it grows thin on the stalk; very tough and flexible. (4) Yellow Pryor. Heavy, wide leaf, bright color, tough, and has a good weight.
Pryor is used principally for the export trade and to some extent also in the home trade both for cigar and plug and smoking tobaccos. It is grown generally throughout Virginia, North Carolina, Kentucky, Tennessee, Missouri and Indiana, the White variety being extensively grown in Virginia.
Pryor is mainly used for export and to a lesser extent in the domestic market for cigars, plug, and smoking tobaccos. It's grown widely across Virginia, North Carolina, Kentucky, Tennessee, Missouri, and Indiana, with the White variety being especially common in Virginia.
[Pg 50]Little Dutch. A very favorite pipe-smoking tobacco. It has a small nicotine content (less than 1%). The leaf is small; narrow, thick and short; dark brown in color, glossy surface and sweet in taste. It is grown extensively in the Miami Valley of Ohio.
[Pg 50]Little Dutch. A highly popular pipe tobacco. It has a low nicotine content (less than 1%). The leaves are small, narrow, thick, and short; they are dark brown with a glossy finish and have a sweet flavor. It is widely cultivated in the Miami Valley of Ohio.
Sumatra Seed. Grown principally in Florida from imported Sumatran seed. The leaf is light in weight and color, not long compared with other seedleaf varieties. Very narrow and with fine ribs. Used in cigar trade and grown extensively also in the New England states.
Sumatra Coffee Beans. Grown mainly in Florida from imported Sumatran seed. The leaf is light in weight and color, and it's shorter compared to other seedleaf varieties. It's very narrow with fine ribs. It's used in the cigar industry and is also grown extensively in the New England states.
Cuban Seed. This has the usual qualities of Cuban tobacco but with inferior fragrance and aroma to the native grown. Principally raised in Pennsylvania, New York, Wisconsin, Connecticut and Florida for the cigar trade.
Cuban Seed. This has the typical qualities of Cuban tobacco but with a lesser fragrance and aroma compared to the locally grown variety. It's mainly cultivated in Pennsylvania, New York, Wisconsin, Connecticut, and Florida for the cigar industry.
Perique. A special variety of tobacco grown only in a small area of Louisiana. The leaf is medium in size, has a fine fiber with small stems. Tough, gummy and glossy. It is grown in a deep, rich soil and grows very rapidly. Its special characteristics are acquired in the curing, which is a special process peculiar [Pg 51]to itself, and which will be described in the chapter on Manufactured Tobaccos.
Perique tobacco. A unique type of tobacco that's only found in a small region of Louisiana. The leaves are medium-sized, have a fine texture with tiny stems. They are tough, sticky, and shiny. It’s cultivated in rich, deep soil and grows quickly. Its distinctive qualities develop during the curing process, which is a specific method unique [Pg 51] to it, and will be detailed in the chapter on Manufactured Tobaccos.
REFERENCES
REFERENCES
Yearbooks of the United States Department of Agriculture. 1914 and previous.
Yearbooks of the U.S. Department of Agriculture. 1914 and earlier.
Hoagland, I. G. The Tobacco Industry. In Quarterly of the National Fire Protection Association. 1907. Vol. I, Nos. 2 and 4.
Hoagland, I. G. The Tobacco Industry. In Quarterly of the National Fire Protection Association. 1907. Vol. I, Nos. 2 and 4.
Jacobstein, M. The Tobacco Industry in the United States. New York, 1907.
Jacobstein, M. The Tobacco Industry in the United States. New York, 1907.
Billings, E. R. Tobacco; its history, varieties, culture, manufacture and commerce. Hartford Conn., 1875.
Billings, E.R. Tobacco: Its History, Varieties, Culture, Manufacture, and Commerce. Hartford, CT, 1875.
CHAPTER V
THE CHEMICAL COMPOSITION OF THE TOBACCO PLANT
THE CHEMICAL COMPOSITION OF THE TOBACCO PLANT
Organic and inorganic matters contained in Tobacco and the parts they
play.
Analysis of various Tobaccos. Nicotine.
Organic and inorganic substances in tobacco and their functions.
Examination of various types of tobacco. Nicotine.
THE CHEMICAL COMPOSITION OF THE TOBACCO PLANT
THE CHEMICAL COMPOSITION OF THE TOBACCO PLANT
The tobacco plant when subjected to chemical analysis is found to contain all or most of the following substances:
The tobacco plant, when analyzed chemically, is found to contain all or most of the following substances:
Mineral Bases. Potash, Lime, Magnesia, Oxides of Iron and Manganese, Ammonia, Silica.
Mineral Bases. Potash, lime, magnesia, iron and manganese oxides, ammonia, silica.
Mineral Acids. Nitric, Hydrochloric, Sulphuric and Phosphoric.
Mineral Acids. Nitric, Hydrochloric, Sulfuric, and Phosphoric.
Organic Base. Nicotine.
Organic Base. Nicotine.
Organic Acids. Malic, Citric, Acetic, Oxalic, Pectic and Ulmic.
Organic Acids. Malic, Citric, Acetic, Oxalic, Pectic, and Ulmic.
Other Organic Substances. Nicotianin, Green and Yellow Resin, Wax and Fat, Nitrogenous Substances and Cellulose.
Other Organic Substances. Nicotianin, Green and Yellow Resin, Wax and Fat, Nitrogen Compounds, and Cellulose.
The substances which differentiate tobacco from other plants and form its chief characteristics are Nicotianin, Nicotine and Malic Acid.
The compounds that set tobacco apart from other plants and define its main characteristics are Nicotianin, Nicotine, and Malic Acid.
The percentage in which the important substances exist in tobacco is given below:
The percentage of the key substances found in tobacco is listed below:
Nicotine | From | 1 | to | 9% | |
Malic and Citric Acids | From | 10 | to | 14% | |
Oxalic Acid | From | 1 | to | 2% | |
Resins, Oils and Fats | From | 4 | to | 6% | |
Pectic Acid | About | 5% | |||
Cellulose | From | 7 | to | 8% | |
Albumenoids | About | 25% | |||
Ash | From | 12 | to | 30% |
[Pg 56]When tobacco is burned, chemical changes occur; the organic and other compounds are decomposed. The volatile matters pass off in the smoke if the combustion is complete, and the mineral ash remains. In ordinary pipe or other tobacco smoking, however, the combustion is not complete and many decomposition products remain with the mineral ash.
[Pg 56]When tobacco is burned, chemical changes happen; the organic and other compounds break down. The vapors escape in the smoke if the burning is complete, leaving behind the mineral ash. However, during regular pipe or other tobacco smoking, the burning isn’t complete, and many decomposition products stay mixed with the mineral ash.
In tobacco smoke the following can usually be found: Furfurol, Marsh Gas, Hydrogen Sulphide, Hydrogen Cyanide, Organic Acids, Phenols, Empyreumatic Oils, Pyridine, Picoline Series and possibly some Nicotine.
In tobacco smoke, you can typically find: Furfurol, Marsh Gas, Hydrogen Sulphide, Hydrogen Cyanide, Organic Acids, Phenols, Empyreumatic Oils, Pyridine, Picoline Series, and possibly some Nicotine.
The ash left after complete combustion is important, as much of the smoking qualities of the tobacco depends on its constituents. An average sample gives the following analysis (in 100 parts):
The ash left after complete combustion is important, as a lot of the smoking qualities of the tobacco rely on its components. An average sample provides the following analysis (in 100 parts):
Average mineral contents of tobacco ash
Typical mineral content in tobacco ash
Potash | About | 27% | |
Soda | About | 3% | |
Lime | About | 40% | |
Magnesia | About | 9% | |
Sodium Chloride | About | 9% | |
Sulphuric Acid | About | 3% | |
Silica | About | 5% | |
Lime Phosphate | About | 4% |
Remarks on Some of the Substances Found in Tobacco
Comments on Some of the Compounds Found in Tobacco
Nicotine
Nicotine
Of all the substances found in tobacco, nicotine is the most important.
Of all the substances in tobacco, nicotine is the most significant.
Nicotine in the pure state is a colorless liquid having a specific gravity of 1.027. It is an organic base having the chemical formula C10H14N2. It is extremely acid and burning to the taste, and is a virulent poison. It easily volatilizes; is inflammable, and is soluble in water, alcohol, ether and some fixed oils. Nicotine has the characteristic peculiar odor of tobacco.
Nicotine in its pure form is a clear liquid with a specific gravity of 1.027. It's an organic base with the chemical formula C10H14N2. It has a very strong acidic and burning taste and is a highly toxic poison. It easily vaporizes, is flammable, and dissolves in water, alcohol, ether, and some oils. Nicotine has the distinctive smell of tobacco.
The amount of nicotine in tobacco is said to depend on the nature of the soil in which it is grown; rich, heavy soils and strong nitrogenous manuring favor the production of a large nicotine content; and light, sandy soils the opposite.
The nicotine content in tobacco is said to depend on the type of soil it’s grown in; rich, heavy soils with strong nitrogen fertilizers encourage higher nicotine levels, while light, sandy soils have the opposite effect.
Moreover the nicotine content depends on the age and development of the plant.
Moreover, the nicotine content depends on the age and growth of the plant.
An investigation by Chuard and Mellet showed nicotine contents of leaves:
An investigation by Chuard and Mellet showed the nicotine content of the leaves:
In young plants 7 weeks old contained | .0324% | |
In plants 10 weeks old contained | .0447% | |
In plants 13 weeks old contained | .4989% | |
In plants 19 weeks old contained | .9202% |
The longer the plant is permitted to grow the larger will be its nicotine content.
The longer the plant is allowed to grow, the higher its nicotine content will be.
[Pg 58]Schlössing has made a similar investigation and found that in the same plant the nicotine content varies from 0.79% when young to 4.32% when fully matured. Most nicotine is found in the ribs and veins.
[Pg 58]Schlössing conducted a similar study and discovered that in the same plant, the nicotine levels range from 0.79% when it's young to 4.32% when fully mature. The highest nicotine concentration is located in the ribs and veins.
H. B. Cox (American Druggist V. 24, 1894, p. 95) investigated the nicotine contents of various manufactured tobaccos. These were not “proprietary tobaccos” but samples obtained from different sources at random. His results are given here:
H. B. Cox (American Druggist V. 24, 1894, p. 95) looked into the nicotine content of various manufactured tobaccos. These weren't "proprietary tobaccos," but samples taken from different sources randomly. His findings are presented here:
Nicotine Contents of Different Tobaccos
Nicotine Levels in Various Tobaccos
Nicotine | ||
Syrian Tobacco leaf (a) | .612% | |
American Chewing Leaf | .935% | |
Syrian Tobacco Leaf (b) | 1.093% | |
Chinese Tobacco Leaf | 1.902% | |
Turkish Coarse Cut | 2.500% | |
Golden Virginia (whole strips) | 2.501% | |
Gold Flake Virginia | 2.501% | |
Navy Cut (light) | 2.530% | |
Light Kentuckian | 2.733% | |
Navy Cut (dark) | 3.64 % | |
Best “Bird’s Eye” | 3.931% | |
Cut Cavendish (a) | 4.212% | |
Best Shag (a) | 4.907% | |
Cut Cavandish (b) | 4.970% | |
[Pg 59]Best Shag (b) | 5.00 % | |
Algerian Tobacco (a) | 8.813% | |
French Grown Tobacco | 8.711% | |
Algerian Tobacco (b) | 8.90 % |
The average of a number of samples of Syrian tobacco showed 1 to 2% nicotine, Manila and Havana 1 to 3%, Virginia and Kentucky from 2 to 7%, and French tobaccos about 9%.
The average of several samples of Syrian tobacco showed 1 to 2% nicotine, Manila and Havana 1 to 3%, Virginia and Kentucky from 2 to 7%, and French tobaccos about 9%.
Most of the nicotine in tobacco becomes volatilized and decomposed during combustion; a small part, however, may form a solution with the water which is also one of the combustion products. One of the decomposition products of nicotine is
Most of the nicotine in tobacco evaporates and breaks down when burned; however, a small amount can mix with the water that's also produced during combustion. One of the breakdown products of nicotine is
Pyridine
Pyridine
Pyridine is usually found in tobacco smoke. When condensed it is a colorless non-oily liquid and is considerably less toxic than nicotine.
Pyridine is commonly found in tobacco smoke. When condensed, it's a colorless, non-oily liquid and is much less toxic than nicotine.
Reference will be made later on to the effects of nicotine and pyridine on the human system.
Reference will be made later on to how nicotine and pyridine affect the human body.
Potash
Potash
Potash is important as on its amount depends the burning qualities of the tobacco. It is sometimes present in the ash to the extent of 30%, being converted into potassium carbonate by burning. Not only for free burning is the potash valuable, but also for the better volatilization of the nicotine and other substances.[Pg 60] The more perfect the combustion, the fewer deleterious compounds are formed.
Potash is vital because its quantity affects how well the tobacco burns. It can sometimes make up to 30% of the ash, turning into potassium carbonate when burnt. Potash is valuable not only for helping the tobacco burn freely but also for improving the evaporation of nicotine and other substances.[Pg 60] The better the combustion, the fewer harmful compounds are produced.
Chlorides, if present, retard the burning of the tobacco, and hence a tobacco which contains a high percentage of chloride, even if it is rich in potash salts, is a poor burning tobacco and therefore faulty. While it is important that the burning should be free and the volatilization as perfect as possible, yet the smoker does not want his tobacco to burn too rapidly. To meet this some manufacturers prepare “slow burning” tobaccos generally by the addition of some chemical which checks the potash.
Chlorides, if they're present, slow down the burning of the tobacco. So, tobacco with a high chloride content, even if it's rich in potash salts, burns poorly and is therefore considered defective. It's essential that the burning is smooth and that the volatilization is as efficient as possible, but smokers also don’t want their tobacco to burn too fast. To address this, some manufacturers create “slow burning” tobaccos by adding a chemical that inhibits the potash.
The aroma and flavor of the tobacco depend to a great extent on the waxes, resins and oils, as well as on certain of the organic acids.
The smell and taste of the tobacco largely rely on the waxes, resins, oils, and some organic acids.
REFERENCES
REFERENCES
U. S. Dispensatory. 1907 (19th Edition).
U.S. Dispensatory. 1907 (19th Edition).
Kissling. The Chemistry of Tobacco. Scientific American (Supp.) 1905, Vol. 60, No. 1560.
Kissling. The Chemistry of Tobacco. Scientific American (Supp.) 1905, Vol. 60, No. 1560.
Chuard & Mellett. Variation de Nicotine dans les differents organes de la plante de Tabac. Comp. Rend. Acad. d. Sc. (Paris) 1912. Vol. 155, p. 293.
Chuard & Mellett. Variation of Nicotine in the Different Organs of the Tobacco Plant. Comp. Rend. Acad. d. Sc. (Paris) 1912. Vol. 155, p. 293.
Pezzolato, A. Conferenza Sulla Chimica applicato alla technologia del Tabacco. (Rome. 1903.)
Pezzolato, A. Conference on Chemistry Applied to Tobacco Technology. (Rome. 1903.)
Wolf, Jacob. Der Tabak und die Tabak fabrikate. Chapter III. Leipzig, 1912.
Wolf, Jacob. The Tobacco and Tobacco Products. Chapter III. Leipzig, 1912.
Schlossing. Sur la production de la nicotine par la culture du Tabac. Compt. Rend. Acad. d. Sc. (Paris), 1910. Vol. 151, p. 23.
Schlossing. On the production of nicotine through tobacco cultivation. Compt. Rend. Acad. d. Sc. (Paris), 1910. Vol. 151, p. 23.
CHAPTER VI
THE CURING OF TOBACCO LEAF
Curing Tobacco Leaves
Objects of curing. Methods.
Healing items. Techniques.
THE CURING OF TOBACCO LEAF
Curing Tobacco Leaves
The “curing” of tobacco leaf is the process of drying out which has for its object the following specific actions:
The "curing" of tobacco leaf is the process of drying it out, which aims to achieve the following specific actions:
(1) The expelling of the sap and superfluous moisture.
(1) The removal of sap and excess moisture.
(2) The completion of the “yellowing” process and the fixing of the desired color.
(2) Finishing the “yellowing” process and securing the desired color.
(3) The preservation of the juices, etc., which give the characteristic flavor and aroma.
(3) The preservation of the juices, etc., that provide the distinctive flavor and aroma.
(4) To give the necessary toughness and suppleness to the leaf.
(4) To provide the needed strength and flexibility to the leaf.
The first part of the curing is done by the grower in curing sheds on the farm immediately after the cutting of the crop; the final part, or the fermentation part is usually done by the leaf dealer or manufacturer in special buildings called leaf-houses.
The first step of the curing process is carried out by the grower in curing sheds on the farm right after the crop is harvested; the final step, or the fermentation process, is typically handled by the leaf dealer or manufacturer in special buildings known as leaf houses.
There are three methods of curing in use by the growers, i. e., sun curing, air curing, and artificial heat curing. In the case of the tobacco known as Perique the curing process is more or less peculiar to itself. “Sun” and “air” curing are much slower processes than the curing by artificial heat.
There are three methods of curing used by growers: sun curing, air curing, and artificial heat curing. For the tobacco known as Perique, the curing process is somewhat unique. “Sun” and “air” curing are much slower processes compared to curing with artificial heat.
[Pg 64]All cigar leaf tobacco is sun-cured, and as a general rule pipe smoking and chewing tobacco are cured by artificial heat.
[Pg 64]All cigar tobacco leaves are dried in the sun, while pipe tobacco and chewing tobacco are usually dried using artificial heat.
For the purpose of drying and curing by artificial heat, the leaf is hung up in specially constructed curing houses or sheds. It is found that after the exposure to the sun for the first process of “yellowing” tobacco leaf still contains 1 lb. of water approximately in each plant. The first part of the process of curing consists in drawing off this superfluous moisture. Dry heat is applied at a temperature of 90° F. to 120° F. for about 16 to 30 hours to effect this. A further exposure of about 48 hours at a temperature of 125° or so is necessary to complete the curing, and fix the color.
To dry and cure with artificial heat, the leaves are hung in specially designed curing houses or sheds. After the initial sun exposure for the “yellowing” process, each tobacco plant still holds about 1 pound of water. The first step in curing involves removing this excess moisture. Dry heat is applied at temperatures between 90°F and 120°F for around 16 to 30 hours to achieve this. An additional exposure of about 48 hours at around 125°F is needed to finish the curing and set the color.
The stems and stalks being thicker take a longer time and generally require 9 to 10 hours further exposure and a temperature which may range as high as 175° F. before they are fully cured, the temperature being graded hourly until the maximum necessary is reached.
The thicker stems and stalks take longer to cure, usually needing an additional 9 to 10 hours of exposure at temperatures that can go up to 175° F. The temperature is adjusted hourly until it reaches the required maximum.
The process of curing varies considerably in different states. Some growers prefer to put the tobacco into the sheds immediately after cutting, and allow very little exposure in the fields. The temperature is usually kept steady at about 90° F. Again the process is different according to the quality of tobacco[Pg 65] required. For the heavy type of leaf which is intended for the export trade, the curing in the sheds is done by an open fire, the fuel being usually hardwood logs. The smoky, creosotic flavor is absorbed by the leaf, and, although this flavor is not relished by the smokers of the U. S., it is much liked in Europe. The curing in such cases may last for 4 or even 5 days. The tobacco is suspended on poles by the stalks and the fires are built on the floor immediately under them so that the carbonaceous products are easily absorbed by the open pores of the leaf.
The curing process varies quite a bit across different states. Some growers like to move the tobacco into sheds right after cutting, limiting its time in the fields. The temperature is usually kept stable at around 90° F. The process also changes depending on the quality of tobacco[Pg 65] needed. For the heavier type of leaf meant for export, curing in the sheds is done with an open fire, typically using hardwood logs for fuel. The smoky, creosotic flavor gets absorbed by the leaf, and while smokers in the U.S. don't usually enjoy this flavor, it's quite popular in Europe. In these cases, curing can take up to 4 or even 5 days. The tobacco is hung on poles by the stalks, and the fires are set on the floor right beneath them so that the carbon-rich byproducts can be easily absorbed by the leaf's open pores.
The chewing and pipe smoking tobacco, as well as cigarette tobaccos including all the bright yellow tobaccos used in the U. S. are usually cured by Flue curing. In this case the heat comes from pipes which run around the curing houses and are fed from a furnace in an adjoining chamber or in a cellar. The temperature can be easily regulated. “Flue” curing is generally completed in about 4 days. “Flue” curing does not clog up the pores of the leaf which therefore remain more absorbent than in the open fire cured tobacco. This is an important matter for the manufacturers because the flue cured leaf will absorb twice as much of the flavoring sauces (which are added to certain[Pg 66] kinds of tobacco) than tobacco leaf cured by open fires.
The chewing and pipe tobacco, as well as cigarette tobaccos, including all the bright yellow tobaccos used in the U.S., are usually cured by flue curing. In this process, heat comes from pipes running around the curing houses, which are fed from a furnace in an adjoining room or cellar. The temperature can be easily controlled. “Flue” curing typically takes about 4 days. “Flue” curing doesn’t clog the pores of the leaf, allowing it to remain more absorbent than tobacco cured by open fires. This is important for manufacturers because flue-cured leaves can absorb twice as much of the flavoring sauces (which are added to certain [Pg 66] types of tobacco) than tobacco leaves cured by open fires.
Air exposure of 6 to 8 weeks (sometimes extended to 3 or 4 months) is necessary when tobacco is cured by exposure to the sun and air. It is claimed, however, that this method of curing preserves far better the natural flavor of the leaf; and, where flavor and aroma are highly important, this method is always preferred. Hence all cigar leaf tobaccos are cured by exposure to natural sunlight and not by artificial heat.
Air exposure for 6 to 8 weeks (sometimes extended to 3 or 4 months) is essential when curing tobacco with sun and air. However, it's said that this curing method better preserves the leaf's natural flavor; and when flavor and aroma are crucial, this method is always preferred. Therefore, all cigar leaf tobaccos are cured using natural sunlight instead of artificial heat.
“Air” curing as distinct from sun curing is generally done in open sheds which are thoroughly ventilated and kept as far as possible at a temperature of about 75° F. The leaf is usually allowed to cure while attached to the stalk, but Florida curers generally prefer to strip the leaf and treat it separately. The finer classes of pipe smoking tobaccos are air cured.
“Air” curing, unlike sun curing, typically takes place in open sheds that are well-ventilated and maintained at around 75° F as much as possible. The leaf is usually cured while still attached to the stalk, but in Florida, curers often prefer to strip the leaf and cure it separately. The higher quality pipe smoking tobaccos are air cured.
After the curing is completed the color of the leaf is usually fixed. Generally speaking, the riper the leaf the lighter will be its color when cured. Thus the bottom leaves of the plant will be lighter in color than the upper leaves because they are more mature.
After the curing is done, the color of the leaf is usually set. In general, the riper the leaf, the lighter its color will be once cured. So, the lower leaves of the plant will be lighter in color than the upper leaves because they are more mature.
(For references see end of Chapter VIII)
(For references see __A_TAG_PLACEHOLDER_0__)
CHAPTER VII
THE MARKETING AND SALE OF TOBACCO LEAF
THE MARKETING AND SALE OF TOBACCO LEAF
Methods of disposal by the grower. The Warehouse system. Direct purchase.
Principal markets in the United States. Prices.
Ways for growers to sell their products. The Warehouse system. Direct buying.
Main markets in the United States. Prices.
THE MARKETING AND SALE OF TOBACCO LEAF
THE MARKETING AND SALE OF TOBACCO LEAF
When the tobacco leaf is fully cured it is at once prepared for the market. The first step is the planters’ classification of the leaf. In the case of pipe smoking and chewing tobacco the planter collects all the imperfect, injured leaves, or those inferior from any cause, and ties them in bundles. These are the planters lugs. All other grades are leaf. Slightly injured leaves are classed as low-leaf or seconds. The others are classed medium, good, fine and selected leaf, according to grade, color, quality, etc.
When the tobacco leaf is fully cured, it’s ready for the market. The first step is for the planters to sort the leaf. For pipe smoking and chewing tobacco, the planter collects all the damaged or lower quality leaves and ties them into bundles. These are called the planters’ lugs. All other grades are referred to as leaf. Slightly damaged leaves are categorized as low-leaf or seconds. The remaining leaves are classified as medium, good, fine, and selected leaf, based on grade, color, quality, and so on.
In the case of cigar leaf tobacco a similar classification is made, more care being taken owing to the very great difference in price between the better and poorer qualities. This difference may be as much as 20c in the lb., the finer and more suitable leaf being eagerly sought for.
In the case of cigar leaf tobacco, a similar classification is used, with more careful consideration due to the significant price difference between the higher and lower qualities. This difference can be as much as 20 cents per pound, with the finer and more desirable leaves being highly sought after.
Pipe smoking and chewing tobacco leaf is usually packed in hogsheads or cases each weighing from 1,000 to 1,400 lbs. The operation of packing the leaf is called “prizing.” Cigar leaf is usually put up in “hands.” A “hand” consists of from 25 to 75 leaves tied together. Four hands tied together make a[Pg 70] “carrot” and 80 carrots go to the bale, but the size of the bale varies considerably. The tobacco is then ready for the buyer.
Pipe smoking and chewing tobacco is typically packed in large containers or cases, each weighing between 1,000 to 1,400 pounds. The process of packing the tobacco is known as “prizing.” Cigar tobacco is generally bundled in “hands.” A “hand” consists of 25 to 75 leaves tied together. Four hands tied together create a[Pg 70] “carrot,” and 80 carrots make up a bale, though the size of the bale can vary significantly. The tobacco is then ready for the buyer.
There are two systems of disposing of the planters’ product: (1) direct purchase by the manufacturer or by a middleman from the grower; and (2) what is known as the warehouse system. In the southern states the warehouse system prevails. Every important tobacco section in the south has its public warehouse which is under the control and supervision of state law. Many of these warehouses are long established, that at Richmond, Va., dating as far back as 1730, and those at Louisville and Clarksville about 1839.
There are two ways to sell the planters’ products: (1) direct purchase by the manufacturer or a middleman from the grower; and (2) the warehouse system. In the southern states, the warehouse system is common. Every major tobacco region in the South has a public warehouse that is regulated and supervised by state law. Many of these warehouses have been around for a long time, with the one in Richmond, VA, dating back to 1730, and those in Louisville and Clarksville established around 1839.
On appointed days the planter brings his leaf to the warehouse. Here it is entered as “loose leaf” or “inspected leaf.” In the case of loose leaf, the tobacco is open to the inspection of prospective buyers, who examine it and afterwards bid on it. In the case of “inspected leaf” the warehouse officials first examine the consignments, grade them and mark them according to their judgment, taking samples. The samples are open to buyers’ inspection and form the basis of sale. Tobacco auctions are regularly held when the buyers assemble and bid on the “loose leaf” and “inspected” lots.[Pg 71] Prices of the various grades are fixed and sales take place at the day’s price.
On designated days, the planter brings their leaf to the warehouse. Here, it’s categorized as “loose leaf” or “inspected leaf.” For loose leaf, the tobacco is available for potential buyers to inspect, after which they place bids. In the case of “inspected leaf,” warehouse officials first evaluate the consignments, grade them, and label them based on their assessment, taking samples. The samples are available for buyers to inspect and serve as the basis for sale. Tobacco auctions are held regularly, where buyers gather to bid on the “loose leaf” and “inspected” lots.[Pg 71] Prices for the different grades are set, and sales occur at the day’s price.
The principal tobacco markets are:
The main tobacco markets are:
For Kentucky and Tennessee—At Louisville, Clarksville and Cincinnati.
For Kentucky and Tennessee—In Louisville, Clarksville, and Cincinnati.
For Maryland and Ohio—At Baltimore.
For Maryland and Ohio—In Baltimore.
For North Carolina—At Durham and Winston.
For North Carolina—At Durham and Winston.
For Virginia—At Richmond.
For Virginia — At Richmond.
The warehouse system has the great advantage that the proceedings are open and the prices are recorded and published. Hence growers can know how the market fluctuates and judge the best time for sale. This is not the case when the sale is private between the buyer and seller as is customary in the eastern and northern states. Here the price actually received by the grower is often different from that given out as paid.
The warehouse system has the big advantage that the processes are transparent and the prices are documented and shared publicly. This way, growers can see how the market changes and determine the best time to sell. This isn’t true for private sales between buyers and sellers, which is common in the eastern and northern states. In these cases, the price the grower actually gets is often different from what is reported as paid.
The price of tobacco leaf has had many vicissitudes during the past 25 years, the price often having reached so low a point as to discourage producers. Thus at Winston, N. C., the price has gradually fallen from 12.3c per lb. in 1889 to 6.3c in 1896. In the same period Burley leaf at Louisville and Cincinnati fell from 10c to 7½c. Prices similarly dropped in other centers. The price of cigar leaf has latterly increased. In 1900 prices ran from[Pg 72] 6 to 15 cents; in 1905 from 8 to 17 cents. Many conditions at home and abroad affect the price, such as bad harvests or inferior grades of produce.
The price of tobacco leaves has experienced many ups and downs over the past 25 years, often dropping to levels that discourage producers. For example, in Winston, N.C., the price has gradually decreased from 12.3 cents per pound in 1889 to 6.3 cents in 1896. During the same period, Burley leaf prices in Louisville and Cincinnati fell from 10 cents to 7.5 cents. Prices likewise declined in other areas. Recently, the price of cigar leaves has gone up. In 1900, prices ranged from[Pg 72] 6 to 15 cents; in 1905, they ranged from 8 to 17 cents. Various factors both domestically and internationally influence these prices, such as poor harvests or lower quality produce.
The tobacco trust has been very unjustly blamed by many for the falling price of tobacco. As a matter of fact and record, however, the concentration of buying power by eliminating the middleman and the small dealers has not only placed the grower in a better position by giving him a better price, as recent records show, but it has benefited the consumer also who can obtain the superior grades at a lower price. It is the middleman’s profit that has been cut. Moreover, the concentrated buying power of the large interests here has been an effective force in keeping up tobacco leaf prices against the foreign buyers. It must be remembered that about half of our crop is exported. The buyers of this portion, who are principally the agents of foreign governments (in the cases where tobacco is a government monopoly as in France, Italy, etc.) assemble at the auctions and bid in the usual way. As this competition is very limited there is always an opportunity for such buyers to agree among themselves as to the limit of prices. This has been one of the important factors which has kept the prices of tobacco leaf down. The [Pg 73]concentration of American buying power has, however, been a formidable check on it, the prices received by the growers being now fair and reasonable, and such as are the result of a healthy market, where the factors of supply and demand have their full share of effect.
The tobacco trust has been unfairly blamed by many for the decline in tobacco prices. However, the reality is that the consolidation of buying power by cutting out the middleman and small dealers has not only improved the situation for growers by giving them better prices, as recent records indicate, but it has also helped consumers who can access higher-quality products at lower prices. The profits that middlemen used to make have been reduced. Additionally, the concentrated buying power of big interests here has played a significant role in maintaining tobacco leaf prices against foreign buyers. It’s important to note that about half of our crop is exported. The buyers of this portion, primarily agents of foreign governments (especially in countries where tobacco is a government monopoly like France and Italy), gather at auctions and bid traditionally. Since this competition is quite limited, there’s always a chance for these buyers to reach an agreement on price limits. This has been a key factor in keeping tobacco leaf prices low. However, the concentration of American buying power has effectively countered this, resulting in fair and reasonable prices for growers—reflecting a healthy market where supply and demand each play a significant role.
The government statistics show that for 1914 the prices of leaf varied from 5.5c to 20c for common to good varieties.
The government statistics show that in 1914, the prices of leaf ranged from 5.5 cents to 20 cents for common to good varieties.
(For references see end of Chapter VIII)
(For references see __A_TAG_PLACEHOLDER_0__)
CHAPTER VIII
REHANDLING AND FERMENTATION OF TOBACCO LEAF PRIOR TO MANUFACTURE
Rehandling and Fermentation of Tobacco Leaf Before Manufacturing
Selection of leaf. Treatment and Blending.
Objects and methods of
Fermentation. Action of microbes.
Selecting leaves. Treatment and Mixing.
Objectives and techniques of Fermentation. How microorganisms function.
REHANDLING AND FERMENTATION OF TOBACCO LEAF PRIOR TO MANUFACTURE
REHANDLING AND FERMENTATION OF TOBACCO LEAF BEFORE MANUFACTURING
We have seen how the tobacco passes from the grower to the manufacturer or leaf dealer. Before it is fitted, however, for manufacture into cigars or other finished products the leaf must go through many processes, the most important of which is fermentation. These processes, which are usually known as rehandling, are carried out in special buildings which are called leaf houses and stemmeries. The procedures in different leaf houses may vary somewhat, but the general principles and objects in view are the same in all. Moreover, the treatment is different, according to the ulterior disposition of the leaf, i. e. whether intended for cigars, pipe smoking or other product.
We’ve seen how tobacco moves from the grower to the manufacturer or leaf dealer. Before it can be made into cigars or other finished products, the leaf has to go through several processes, with fermentation being the most crucial. These processes, often referred to as rehandling, take place in special buildings known as leaf houses and stemmeries. The procedures in different leaf houses might vary a bit, but the general principles and goals are the same across the board. Additionally, the treatment differs based on the intended use of the leaf, whether for cigars, pipe smoking, or other products.
The general treatment as carried out in large establishments is about as follows:
The typical treatment used in large facilities is roughly as follows:
The leaf as soon as it is received whether in casks, cases, bales, or otherwise is opened up and inspected in the casing room. Large concerns which manufacture or deal in cigar and other kinds of leaf, sort out the different kinds suitable for each class of product, i. e. wrappers, fillers, binders, cigarette leaf, plug leaf,[Pg 78] etc. These are distributed to either special houses or departments. The tobacco leaf when first received is usually dry and brittle. The bundles are carefully opened up and the leaves loosened and spread out on large trucks where they are sprayed with water. When the leaf has soaked the water and is pliable it undergoes a sorting which is done by selecting leaves from different cases or even bundles of leaves and in a general way arranging them so that each truckfull represents a blend of the different kinds of leaf which are suitable for the purpose in view. These sorted packages are then roughly fastened together and after being again sprinkled thoroughly are sent to the “sweating” room to undergo fermentation which may last several weeks. The temperature of this room must be carefully regulated and is usually kept at about 90° F.
The leaf, as soon as it's received—whether in casks, cases, bales, or some other way—is opened up and inspected in the casing room. Large companies that make or trade in cigar and other types of leaf sort out the different kinds suitable for each type of product, like wrappers, fillers, binders, cigarette leaf, plug leaf,[Pg 78], etc. These are sent to either special houses or departments. The tobacco leaf, when first received, is usually dry and brittle. The bundles are carefully opened up, and the leaves are loosened and spread out on large carts where they are sprayed with water. Once the leaf has soaked up the water and becomes flexible, it undergoes sorting, which involves selecting leaves from different cases or even bundles and organizing them so that each cartload represents a blend of the different kinds of leaf that are suitable for the intended purpose. These sorted packages are then loosely tied together and, after being thoroughly sprayed again, are sent to the “sweating” room to undergo fermentation, which can last several weeks. The temperature of this room must be carefully controlled and is usually kept at around 90° F.
The selection and blending of the different kinds of leaf is most important. It requires accurate and expert knowledge in choosing leaves and kinds possessing different strengths and other qualities and in combining them in such proportions that the final effect of the blend gives just what is required.
The choice and mixing of different types of leaves is crucial. It takes precise and skilled knowledge to select leaves with varying strengths and qualities and to combine them in the right proportions so that the final blend delivers exactly what is needed.
It is particularly in this expert treatment of the leaf before manufacture that the greatest advance has been made in the tobacco industry.[Pg 79] The smoker has the advantage and satisfaction of knowing that not only does he get the benefit of improved scientific knowledge and sanitary conditions by which anything that might be harmful or undesirable is removed, but that handling the leaf in large quantities effects great economics and procures for him the benefit of choicest selected grades at a reduced cost.
The biggest advancement in the tobacco industry has come from how the leaves are treated before they're made into products.[Pg 79] Smokers can enjoy the peace of mind that not only are they benefiting from better scientific knowledge and sanitary practices that eliminate anything harmful or unwanted, but that processing the leaves in bulk leads to significant cost savings, allowing them to access the best quality at a lower price.
It may be said here incidentally that leaves of the very best tobaccos which are defective merely in size, or color, etc., are put through exactly the same processes as the choicer quality leaves, and are used in the manufacture of the popular priced machine-made “little cigars” and “cheroots.”
It can be noted that the highest quality tobacco leaves, which might be flawed only in size or color, go through the same processes as the finer quality leaves and are used to make affordable machine-made “little cigars” and “cheroots.”
It will be necessary now to digress for a short time and consider what happens during the process of fermentation.
It’s necessary to take a brief pause now and look at what happens during fermentation.
Fermentation of Tobacco
Tobacco Fermentation
The fermenting of tobacco leaf has for its principal objects, (1) the removal of acrid matters, (2) the fixing of the color, and (3) the production of flavor. Fermentation can only take place under suitable conditions of heat and moisture, and is essentially a chemical process during which certain organic compounds stored in the plant are split up and others formed.
The fermentation of tobacco leaves has three main goals: (1) to get rid of harsh substances, (2) to set the color, and (3) to create flavor. Fermentation can only happen under the right conditions of heat and moisture, and it is essentially a chemical process where certain organic compounds in the plant are broken down and new ones are created.
[Pg 80]A certain amount of fermentation takes place in the curing houses during the “yellowing” of the leaf after it has been harvested, but as we have seen the main process of fermentation does not occur until it is “rehandled” by the manufacturers.
[Pg 80]Some fermentation happens in the curing houses while the leaf is “yellowing” after it’s harvested, but as we’ve seen, the main fermentation process doesn’t take place until it’s “rehandled” by the manufacturers.
The general opinion held at present as the result of investigation is that the transformations which are effected in the leaf are purely the result of chemical processes. As the plant slowly dies and decomposes special ferments are produced. These ferments set up an oxidization process which splits up the complex organic compounds which still exist in the leaf cells. The starch in the plant is changed into sugar which is slowly consumed. There is a decrease in the fats and gummy substances, also in nicotine and nitrogenous compounds, and there is a formation of certain organic acids such as malic, citric and oxalic which are essential in the production of flavor. Briefly it may be said that the process is an attempt by the plant to prolong its existence by feeding on its own substance, by drawing on its own reserves and on its own structure for the food which its cells no longer receive through the natural growing process. When the struggle is over the “fermentation” is complete. The necessity for maturing tobacco has long been[Pg 81] known but the exact nature of the changes that take place during the process were not understood. Since the discoveries of Louis Pasteur regarding the part played by bacteria in general fermentative processes it has been generally claimed by bacteriologists that the changes wrought in the leaf and the production of flavor are solely the work of bacteria. Although this view has not been proved it has never been fully disproved, and there appears to be no doubt that the microbes known to exist in the leaf during the fermentation process play an important part in the process. Fermentation can only take place as stated under suitable conditions of heat and moisture and these are the conditions which favor the development of microbes and enable them to work. The results obtained are probably partially due to chemical action and partly to bacterial action, the two being complementary to each other.
The current consensus based on research is that the changes occurring in the leaf are mainly due to chemical processes. As the plant gradually dies and breaks down, specific enzymes are produced. These enzymes trigger an oxidation process that breaks down the complex organic compounds still present in the leaf cells. The starch in the plant is converted into sugar, which gets consumed slowly. There's a reduction in fats, gummy substances, nicotine, and nitrogen compounds, along with the formation of certain organic acids like malic, citric, and oxalic, which are crucial for producing flavor. In short, the process can be seen as the plant trying to extend its life by using its own materials, drawing from its reserves and structure for the nutrients its cells can no longer get through the normal growth process. Once the struggle is over, the “fermentation” is completed. The need for maturing tobacco has long been[Pg 81] acknowledged, but the specific changes that occur during this process weren't fully understood. Following Louis Pasteur's discoveries about the role of bacteria in general fermentation, many bacteriologists assert that the changes in the leaf and the development of flavor result solely from bacterial activity. While this perspective hasn’t been proven, it hasn't been completely disproven either, and it's clear that the microbes found in the leaf during fermentation play a significant role. Fermentation can only happen, as mentioned, under appropriate conditions of heat and moisture, which are favorable for microbial growth. The outcomes are likely due, in part, to chemical reactions and in part to bacterial action, with the two working together.
In 1899 Suchsland, a German scientist, startled the tobacco world by asserting that the flavor of tobacco was in no way due to the effects of the soil and climate where it was grown, but was solely due to microbic action, and that the specific flavor and aroma of any given tobacco could be artificially produced by the cultivation of selected bacteria and allowing the tobacco to cure and ferment under their [Pg 82]action. He conducted a series of experimental investigations in which he searched for and isolated the specific microbes found in the best West Indian tobacco. From these he made artificial cultures and introduced them into heaps of inferior, coarse German tobacco which was undergoing curing. His results were such that the smoking quality of the leaf was entirely changed. It could scarcely be distinguished from the best Cuban tobacco and experts and connoisseurs failed to identify the product as German tobacco. A company was formed to exploit the new ideas commercially, but it does not appear to have met with success. Other investigations failed to obtain Suchsland’s results and extensive investigation in the Agricultural Experimental Station in the United States have not up to now produced any results confirmatory of the theory.
In 1899, Suchsland, a German scientist, shocked the tobacco industry by claiming that the flavor of tobacco wasn’t influenced by the soil and climate where it was grown, but was completely a result of microbial action. He suggested that the unique flavor and aroma of any particular tobacco could be artificially created through the cultivation of specific bacteria and allowing the tobacco to cure and ferment under their [Pg 82] influence. He carried out several experimental studies where he identified and isolated the specific microbes found in the best West Indian tobacco. From these, he created artificial cultures and introduced them into heaps of low-quality, rough German tobacco that was undergoing curing. His results completely transformed the smoking quality of the leaf. It was hardly distinguishable from the finest Cuban tobacco, and experts and connoisseurs failed to recognize it as German tobacco. A company was established to capitalize on these new ideas commercially, but it seems to have struggled to find success. Other studies were unable to replicate Suchsland's results, and extensive research at the Agricultural Experimental Station in the United States has not yet confirmed his theory.
We can now proceed to follow the course of the tobacco in its peregrinations through the leaf house.
We can now continue to track the journey of the tobacco as it moves through the leaf house.
On their return from the first fermentation the bundles go to the picking department. Leaves which are damaged or unsuitable in any way are here picked out and put aside to be used in the cheaper grades. The leaves are then subjected to a thorough cleaning to remove particles of sand, clay, etc., packed tightly in[Pg 83] bundles and returned to the sweating department to undergo further fermentation and to allow for a thorough interchange of the aroma of the different blends. In due course the bundles pass to the stemming department for the removal of the midribs which usually form nearly one-third of the entire weight. The resulting half leaves are then arranged in piles of 50, each pile forming a “book.”
After the first fermentation, the bundles are sent to the picking department. Damaged or unsuitable leaves are sorted out and set aside for use in cheaper grades. The leaves are then thoroughly cleaned to remove sand, clay, and other debris, tightly packed in [Pg 83] bundles, and sent back to the sweating department for further fermentation. This process allows for a complete exchange of aromas among the different blends. Eventually, the bundles move to the stemming department, where the midribs— which usually account for about a third of the total weight—are removed. The remaining half leaves are then stacked in piles of 50, with each stack referred to as a “book.”
From the stemming department the books pass to the drying room where any superfluous moisture is removed by hot air currents.
From the stemming department, the books go to the drying room, where any excess moisture is removed by hot air currents.
From the drying room the books pass to the ordering room where they undergo inspection for color, size, etc., and subjected to further treatment if necessary. Here they are finally packed in cases and stored for several months to allow perfect and uniform blending after which they are ready for shipment to the factory. Filler leaf for the finest cigars may stand in these cases for two or three years.
From the drying room, the books move to the ordering room, where they’re checked for color, size, and more, and then they may receive additional treatment if needed. Here, they are finally packed in cases and stored for several months to ensure perfect and uniform blending, after which they’re ready to be shipped to the factory. Filler leaf for the finest cigars can remain in these cases for two or three years.
Leaf which is intended for chewing or pipe smoking is not subjected to so great an elaboration of processes as cigar leaf, as the matters of uniformity of color, and delicacy as well as individuality of aroma are not of such great importance. Usually such tobacco leaf is fermented in bulk, and the removal of the stems is done before the principal fermentation.
Leaf meant for chewing or pipe smoking doesn't go through as many processing steps as cigar leaf does, since factors like color uniformity and the subtlety or uniqueness of aroma aren't as crucial. Typically, this type of tobacco leaf is fermented in bulk, and the stems are removed before the main fermentation takes place.
[Pg 84]After the preliminary selection of varieties, sorting, stemming and cleaning, the leaf is dipped into large vats containing flavors; and after drying are subjected to steaming. They are then packed away in bulk in the sweating department where they slowly ferment until required for use. These “bulks” or stacks may contain many tons of leaf. They require constant turning over, etc. Indeed it may be said that every step in these processes requires constant care. Temperature, moisture, length of exposure, etc., must all be carefully seen to. Otherwise the tobacco will spoil.
[Pg 84]After the initial selection of varieties, sorting, stemming, and cleaning, the leaves are dipped into large vats filled with flavors; and after drying, they undergo steaming. They are then stored in bulk in the sweating department, where they slowly ferment until needed. These “bulks” or stacks can hold many tons of leaves. They require regular turning and other attention. In fact, every step in these processes demands constant care. Temperature, moisture, duration of exposure, and more must all be monitored carefully. Otherwise, the tobacco will spoil.
In the case of tobacco leaf intended for export trade rehandling consists mainly of stemming and removal of moisture. This is done before shipment in order to reduce the weight as customs duty is levied in accordance with the weight of the imported packages in the countries importing.
In the case of tobacco leaves meant for export, rehandling mainly involves stemming and removing moisture. This happens before shipping to cut down on weight since customs duties are charged based on the weight of the imported packages in the countries receiving them.
REFERENCES
REFERENCES
U. S. Depart. of Agric. Farmers’ Bulletins 6 and 60.
US Department of Agriculture Farmers’ Bulletins 6 and 60.
Laureut, L. Le Tabac, sa culture et sa preparation, production et consommation. Paris, 1900.
Laureut, L. Tobacco, its cultivation and preparation, production and consumption. Paris, 1900.
Bouant, E. Le Tabac; culture et industrie. Paris, 1901.
Bouant, E. Tobacco: Cultivation and Industry. Paris, 1901.
[Pg 85]Boekhout und de Vries. Uber Tabacfermentation. “Centralbl. f. Bakter,” 1909. 2 Abteil. Vol. 24, p. 496.
[Pg 85]Boekhout and de Vries. On Tobacco Fermentation. “Central Journal for Bacteriology,” 1909. Part 2. Vol. 24, p. 496.
Loew, O. Sind Bakterien die Ursache der Tabakfermentation? “Centralbl. f. Bakter,” 1909. Vol. 6, p. 108.
Loew, O. Are Bacteria the Cause of Tobacco Fermentation? “Centralbl. f. Bakter,” 1909. Vol. 6, p. 108.
Killebrew and Myrick. Tobacco Leaf. Part I. New York, 1897.
Killebrew and Myrick. Tobacco Leaf. Part I. New York, 1897.
Suchsland, E. Bobachtungen über die Selbsterwärmung des fermentierenden Tabaks. In “Festschrift 200-Jahr Jubel. d. Verein. Friedrichs Universit.” Halle-Wittenberg, 1894.
Suchsland, E. Observations on the Self-Heating of Fermenting Tobacco. In “Celebration Book for the 200-Year Anniversary of the Friedrich University Association.” Halle-Wittenberg, 1894.
Wolf, Jakob. Der Tabak und die Tabakfabrikate. Chapter IV. Leipzig, 1912.
Wolf, Jakob. The Tobacco and Tobacco Products. Chapter IV. Leipzig, 1912.
Hoagland, J. G. The Tobacco Industry. In Quarterly of the Nat. Fire Protec. Assn., 1907. Vol. 1, Nos. 2 and 4.
Hoagland, J.G. The Tobacco Industry. In Quarterly of the Nat. Fire Protec. Assn., 1907. Vol. 1, Nos. 2 and 4.
Jacobstein, M. The Tobacco Industry in the U. S. Chapter II. New York, 1907.
Jacobstein, M. The Tobacco Industry in the U. S. Chapter II. New York, 1907.
CHAPTER IX
MANUFACTURED PRODUCTS OF TOBACCO IN THE UNITED STATES
TOBACCO PRODUCTS MANUFACTURED IN THE UNITED STATES
Statistics of production and consumption. Amount of capital invested, etc.
Production and consumption statistics. Amount of capital invested, etc.
MANUFACTURED PRODUCTS OF TOBACCO. GENERAL REMARKS
MANUFACTURED PRODUCTS OF TOBACCO. GENERAL REMARKS
The importance and magnitude of the tobacco manufacturing industry in the United States will be best understood from a consideration of the following statistics taken from the latest available government records:
The significance and scale of the tobacco manufacturing industry in the United States can be better understood through the following statistics sourced from the most recent government records:
(For all Manufactured Products)
(For All Manufactured Products)
Cost of materials used | (1905) | == | $126,000,000 | |
(1909) | == | 177,000,000 | ||
Value of the product | (1905) | == | 331,000,000 | |
(1909) | == | 417,000,000 | ||
No. of establishments | (1905) | == | 16,828 | |
(1909) | == | 15,822 | ||
No. of persons employed, more than one-third being women | (1905) | == | 160,000 | |
(1909) | == | 197,000 |
The figures are given in round numbers. The total capital invested in this industry is between $300,000,000 and $400,000,000.
The figures are presented as rounded numbers. The total capital invested in this industry is between $300 million and $400 million.
There are more than one and a quarter millions acres in the U. S. under cultivation of tobacco which yields a crop at present approximating to 1,000 million lbs. of leaf annually.
There are over 1.25 million acres in the U.S. devoted to tobacco cultivation, producing a crop that currently amounts to about 1 billion pounds of leaf each year.
The industry shows an absolutely increasing condition in every particular at each census.[Pg 90] During the past 45 years the value of the product has increased more than $300,000,000.
The industry shows a consistently positive trend in every aspect at each census.[Pg 90] Over the past 45 years, the value of the product has grown by more than $300,000,000.
In addition to the trade in manufacturing in the U. S. there is the export trade principally in unmanufactured leaf. This amounts at present to about $54,000,000 annually. The price of export leaf has been continuously increasing despite of the fact that the production of leaf abroad is increasing. Thus in 1886 the average export price of leaf from the U. S. was 8½c per lb. In 1914 it was more than 12c.
In addition to the manufacturing trade in the U.S., there is the export trade mainly in unprocessed leaf. This currently totals about $54 million each year. The price of export leaf has been steadily rising, even though production of leaf overseas is increasing. For instance, in 1886, the average export price of leaf from the U.S. was 8.5 cents per pound. By 1914, it had risen to over 12 cents.
The following statement shows at a glance the marvelous increase in the tobacco industry:
The following statement quickly highlights the amazing growth in the tobacco industry:
Comparative Statement of Manufactured Tobacco in the U. S. (all products)
Comparative Statement of Manufactured Tobacco in the U.S. (all products)
Capital invested. | No. of persons employed. | Value of product. | |||||
Year 1880 | $ 39,000,000 | 86,000 | $126,000,000 | ||||
Year 1890 | 90 million | 117,000 | 195 million | ||||
Year 1900 | 111,000,000 | 142,000 | 264 million | ||||
Year 1905 | 324,000,000 | 159,000 | 330 million | ||||
Year 1909 | 197,000 | 417 million |
In addition to the number of persons employed in manufacturing we must take into account those employed (as well as the capital invested) in the agricultural and distributing ends.
In addition to the number of people working in manufacturing, we also need to consider those employed (and the capital invested) in agriculture and distribution.
The export manufacturing trade is not important, being only valued at about 3 million dollars annually.
The export manufacturing trade isn't significant, worth only about 3 million dollars a year.
[Pg 91]The value of the home manufactured products which in 1905 was shown at $330,000,000 is distributed as follows.
[Pg 91]In 1905, the total value of home-produced goods, which was $330,000,000, is broken down as follows.
Cigars | $198,000,000 | |
Cigarettes | 16,000,000 | |
Chewing and smoking tobaccos | 109,000,000 | |
Snuff | 6,000,000 | |
Other products | 1,000,000 | |
Total | $330,000,000 |
For the increase in the present value of the product these figures would be proportionately increased.
For the increase in the current value of the product, these figures would be proportionately increased.
In the year 1913 the United States exported about 350 million lbs. of unmanufactured tobacco leaf, and in 1914, 449 million lbs. This was distributed as follows:
In 1913, the United States exported around 350 million pounds of unprocessed tobacco leaf, and in 1914, that number increased to 449 million pounds. This was distributed as follows:
To Great Britain and Ireland | 174 | million | lbs. | |
To Canada | 17 | " | " | |
To France | 55 | " | " | |
To Germany | 32 | " | " | |
To Italy | 45 | " | " | |
To Netherlands | 28 | " | " | |
To Spain | 17 | " | " | |
To Japan | 16 | " | " | |
To China | 11 | " | " | |
To Belgium | 11 | " | " | |
To Africa, Australia, etc. | 43 | " | " | |
Total | 449 | " | " |
[Pg 92]The largest export manufacturing trade was to Asia, the cigarettes exported there having a value of 2½ million dollars.
[Pg 92]The biggest export manufacturing trade was to Asia, with the cigarettes sent there worth 2.5 million dollars.
The consumption of manufacturing products of tobacco in the U. S. has increased continuously since 1863 when it was 1.6 lbs. per head to the present time when it is 5½ lbs. per head of the total population. This works out at about 16 lbs. per head for each male over 16 years. The consumption of tobacco in the U. S. is higher than in any other country and has increased more rapidly. For the past 40 years the consumption per head in U. S. has increased 240%; in England 56%; in France 24%; in Germany 23%. From this fact different deductions might be made. It may be that the Americans smoke more because they are fonder of tobacco than Europeans; or because they get better and cheaper tobacco; or because they can better afford to buy tobacco. The greatest percentage of increase in the United States is in the consumption of cigars.
The use of manufactured tobacco products in the U.S. has been steadily rising since 1863, when it was 1.6 lbs. per person, to the current rate of 5½ lbs. per person in the total population. This averages out to about 16 lbs. per person for each male over 16 years old. Tobacco consumption in the U.S. is higher than in any other country and has increased at a faster rate. Over the past 40 years, per capita consumption in the U.S. has jumped by 240%; in England, it's only 56%; in France, 24%; and in Germany, 23%. This suggests a few possibilities: Americans might smoke more because they love tobacco more than Europeans do; or because they have access to better and cheaper tobacco; or because they can more easily afford it. The largest increase in the United States is seen in the consumption of cigars.
The manufactured products are classed as (1) cigars, (2) pipe smoking and chewing tobaccos, (3) cigarettes, (4) snuff. To each of these separate chapters will be devoted.
The manufactured products are categorized as (1) cigars, (2) pipe tobacco and chewing tobacco, (3) cigarettes, (4) snuff. Each of these will have its own chapter.
(For references see Chapter XV)
(For references see __A_TAG_PLACEHOLDER_0__)
CHAPTER X
CIGARS. HISTORICAL AND GENERAL FACTS
CIGARS: HISTORY AND GENERAL FACTS
History. Statistical information regarding the cigar business in the United States.
History. Statistical data regarding the cigar industry in the United States.
CIGARS. HISTORICAL AND GENERAL FACTS
Cigars: History and General Facts
When the Spaniards landed for the first time on American soil they found the natives smoking the rolled-up tobacco leaves, that is a cigar. For a cigar is nothing more, four centuries having made little change in the Cuban cigar. The word cigar is most probably derived from the Spanish word cigarer—to roll. Other derivations are given, but this seems etymologically the correct one; and we will rest content with it. In Spanish America to the present day the custom of smoking tobacco in the rolled form, either as cigars or cigarettes, prevails, rather than the custom of smoking in pipes which was the method of the northern aborigines from whom the English colonists adopted it. Smoking was introduced into Spain in the cigar form and into England in the pipe form. Cigars, however, at the present time, both in North and South America, form the principal item in the tobacco account of the people; we shall therefore enter somewhat fully into matters concerning their manufacture, etc.
When the Spaniards first landed on American soil, they encountered the natives smoking rolled tobacco leaves, which is essentially a cigar. A cigar is pretty much the same, with four centuries having changed little about the Cuban cigar. The word cigar most likely comes from the Spanish word cigarer—to roll. Other theories exist, but this one seems to be the most accurate, and we’ll stick with it. In Spanish America today, the tradition of smoking tobacco in rolled form, either as cigars or cigarettes, is more common than smoking pipes, which was the method used by northern indigenous people that the English colonists adopted. Smoking was brought to Spain in the form of cigars and to England using pipes. Currently, cigars are the main form of tobacco consumed by people in both North and South America; therefore, we will take a closer look at their production, among other aspects.
Although, as stated, it is in the cigar form that smoking was introduced into Spain, it was not till about 1790 that cigars were used generally in Europe. A factory for the [Pg 96]manufacture of cigars was established at Hamburg in 1796. The custom did not spread rapidly and did not reach any considerable proportion in England till about 1830 when the high duties were considerably reduced.
Although, as mentioned, it was in the form of cigars that smoking was introduced to Spain, it wasn't until around 1790 that cigars became widely used in Europe. A factory for the [Pg 96] production of cigars was established in Hamburg in 1796. The habit didn't spread quickly and didn't gain significant popularity in England until around 1830 when the high taxes were significantly reduced.
Cigar making has always been a staple industry in Cuba. It was there when the Europeans landed and it is there still. Its record is unbroken. There was always a greater or lesser exportation to Europe and elsewhere.
Cigar making has always been a key industry in Cuba. It was present when the Europeans arrived and it continues to thrive today. Its history is consistent and uninterrupted. There has always been varying levels of exports to Europe and other regions.
The cigar business of the U. S.
The cigar industry in the U.S.
Of the various manufactured products of tobacco leaf, the cigar trade is the most important in the U. S., its value being greater than that of all other tobacco products combined.
Of all the products made from tobacco leaves, the cigar industry is the most significant in the U.S., with a value that exceeds that of all other tobacco products combined.
The magnitude of this branch of the tobacco business may be gauged when we state that at the present time there are made annually in the U. S. cigars of all kinds to the amount of about 8½ billions. The Census Bureau Report for 1912 shows that for that year the number of full-sized cigars made and on which tax was paid was in round numbers 7,500,000,000, and of “little cigars,” that is under the regular size, about 1,000,000,000. These figures are certainly stupendous, particularly when we consider that, in addition, at least several hundred[Pg 97] more were imported and that only about 2,000,000 were exported. Uncle Sam evidently likes to smoke cigars.
The scale of this part of the tobacco industry is evident when we mention that currently, around 8.5 billion cigars of all types are produced annually in the U.S. The Census Bureau Report for 1912 indicates that during that year, the number of full-sized cigars manufactured and taxed was approximately 7.5 billion, and there were about 1 billion “little cigars,” which are smaller than the regular size. These numbers are truly impressive, especially considering that several hundred[Pg 97] more were imported while only about 2 million were exported. It’s clear that Uncle Sam enjoys smoking cigars.
To make these cigars requires a consumption of 136 million lbs. of cigar leaf. Nearly 50 million lbs. of this is imported at a gross cost (exclusive of duties) of about 35 million dollars, the rest of the leaf is home grown. The principal imports are from Cuba. In 1912 we imported cigar leaf from Cuba in amount nearly 23 million lbs. and in 1913 this increased to over 27 million lbs. valued at more than 16 million dollars. The imports of East Indian (Sumatran) leaf varies from 6 to 8 million lbs. and costs from 7 to 8 million dollars.
To produce these cigars, we need 136 million pounds of cigar leaf. Almost 50 million pounds of this is imported at a total cost (not including duties) of about 35 million dollars, while the rest is grown locally. The main imports come from Cuba. In 1912, we imported nearly 23 million pounds of cigar leaf from Cuba, and in 1913 this rose to over 27 million pounds, valued at more than 16 million dollars. The imports of East Indian (Sumatran) leaf range from 6 to 8 million pounds and cost between 7 to 8 million dollars.
Although the amount of imported leaf used in cigar making shows a steady increase, being now more than 50% greater than a decade ago, yet the proportion of foreign leaf to home-grown leaf in the whole manufacture shows a steady decrease. This speaks well for the improving quality of American grown leaf.
Although the amount of imported leaf used in cigar making has steadily increased, now over 50% greater than a decade ago, the ratio of foreign leaf to domestically grown leaf in the overall production is steadily decreasing. This indicates that the quality of American-grown leaf is improving.
There are in the United States about 26,000 cigar factories, both large and small. The large number of establishments is due to the fact that cigar making is still to a large extent a hand-making industry. About 135,000 persons are directly employed in the manufacture, nearly half of whom are women. The capital engaged[Pg 98] in the business is reported as 150 millions and the value of the product 200 million dollars annually. The actual consumer pays about 300 million dollars for the cigars smoked, the difference between the cost of the product and the latter figure being the expense and profit of the retail handlers. The enormous growth of the cigar trade is seen when it is compared with 1860. In that year the annual value of this product was only 9 million dollars. The two states of New York and Pennsylvania are the centers of cigar manufacture. Between them they make nearly half of the entire product, Pennsylvania leading with about two thousand million cigars annually. Florida makes about 300 million. The price paid by the consumer works out to an average of about 4c for each cigar.
There are about 26,000 cigar factories in the United States, both large and small. The high number of businesses is partly because cigar making is still largely a handcraft. Around 135,000 people are directly employed in manufacturing, with almost half being women. The total investment in the industry is reported to be 150 million dollars, and the annual product value is 200 million dollars. Consumers spend about 300 million dollars on cigars, with the difference between the product cost and that amount covering the expenses and profits of retailers. The significant growth of the cigar industry is evident when compared to 1860, when the annual product value was just 9 million dollars. New York and Pennsylvania are the main centers for cigar production, together accounting for nearly half of the total output, with Pennsylvania leading at about two billion cigars annually. Florida produces about 300 million cigars. Consumers end up paying an average of around 4 cents for each cigar.
CHAPTER XI
CIGAR MAKING
Cigar Production
Hand-made cigars. Machine-made cigars.
Classification of cigars. Terms used in the cigar trade.
Handmade cigars. Machine-made cigars.
Cigar categories. Terms used in the cigar industry.
CIGAR MAKING
Cigar crafting
It was inevitable that modern progress should invade and revolutionize the old and slow methods of cigar making; and so it has. Smoking is a sentimental occupation and lends itself easily to romantic associations. A good deal of romance and sentiment still hangs around the hand-made cigar and cigarette. In an up-to-date cigar factory, however, the whir of machinery and the precise, regular movements of automatic contrivances give little scope for sentiment.
It was bound to happen that modern advancements would disrupt and change the old and slow ways of making cigars, and that’s exactly what’s occurred. Smoking is a nostalgic activity and naturally comes with romantic connections. There's still a lot of romance and sentiment tied to hand-rolled cigars and cigarettes. In a modern cigar factory, though, the hum of machines and the organized, repetitive actions of automated devices leave little room for sentiment.
Up to 1870 cigars were hand-made. All that was necessary was an inexpensive board, a cutting knife, and a block of wood with a stationary knife, known as a “tuck,” for measuring and cutting the finished cigar.
Up to 1870, cigars were made by hand. All that was needed was a cheap board, a cutting knife, and a block of wood with a fixed knife, called a “tuck,” for measuring and cutting the finished cigar.
About the time stated the “mold” was introduced. The mold is a wooden block about 18″ x 6″ x 3″, a tool which facilitates the shaping of the “bunch” or filler part of the cigar and presses it into shape. This mold is now used in most “hand-made” cigar factories where the labor is subdivided into “bunch-makers” and “rollers,” the latter putting on the binder and wrapper and finishing the cigar.
Around that time, the “mold” was introduced. The mold is a wooden block measuring about 18″ x 6″ x 3″, a tool that helps shape the “bunch” or filler part of the cigar and presses it into form. This mold is now used in most “hand-made” cigar factories, where the work is split between “bunch-makers” and “rollers.” The rollers add the binder and wrapper and finish the cigar.
It is the introduction of practically automatic machinery, however, which is revolutionizing[Pg 102] the cigar-making business, and slowly but surely driving the “hand-made” cigar into the position occupied by the “hand-made” cigarette. And the writer cannot see why this should not be so. As it has been said, there is much sentiment about hand-made cigars. But common sense seems to be on the side of the machine. We quite understand the difficulty of killing old prejudices and time honored customs; but it is difficult to understand how the flavor or quality of a cigar filler can be different whether it is pressed into the shape by a machine or by the hand of a workman; or what the precise improvement is when a wrapper leaf is put on and licked by a workman rather than by a clean machine under perfect sanitary conditions. However, sentiment still persists. Imaginary, or perhaps real, charms are ascribed to the hand-made goods and the smoker is willing and even wishful to pay a higher price for his fancy. The result is that the small factory is still predominant. It depends more on labor than on capital. But the large factories have an immense production. The condition will be best shown by stating that in less than 1 per cent of the cigar making establishments of the U. S. nearly 50 per cent of the entire output is made, or, putting it another way, nearly three-fourths of all the licensed cigar factories[Pg 103] produced less than one-tenth of the product. Of the 26,000 establishments in the U. S. only in 2 is the annual output more than 50 million and in 27 the output runs from 25 to 50 million. Pennsylvania establishments, principally in Philadelphia, produce 28% of the entire U. S. cigar output; New York State, principally New York City, comes next with about 20%; and Ohio, principally Cincinnati, third with about 8%.
The introduction of mostly automatic machinery is changing the cigar-making industry, gradually pushing the "hand-made" cigar into a role similar to that of the "hand-made" cigarette. The writer can't see why it shouldn't be this way. As has been mentioned, there's a lot of sentiment around hand-made cigars. But common sense seems to favor machines. We understand how tough it is to overcome old biases and long-standing customs, but it's hard to grasp how the flavor or quality of a cigar filler could differ depending on whether it’s shaped by a machine or a worker’s hands. Similarly, what exactly improves when a wrapper leaf is applied and moistened by a worker instead of a clean machine operating under perfect sanitary conditions? Still, sentiment endures. Imaginary, or maybe real, charms are attributed to hand-made goods, and smokers are willing, even eager, to pay more for them. As a result, smaller factories continue to dominate. They rely more on labor than on capital. However, the large factories have massive production capacities. This situation is best illustrated by stating that in less than 1 percent of the cigar-making establishments in the U.S., nearly 50 percent of the total output is produced, or to put it another way, almost three-fourths of all licensed cigar factories[Pg 103] produce less than one-tenth of the total product. Out of 26,000 establishments in the U.S., only 2 have an annual output exceeding 50 million, and 27 produce between 25 and 50 million. Pennsylvania establishments, mainly in Philadelphia, account for 28% of the entire U.S. cigar output; New York State, mainly New York City, follows with about 20%; and Ohio, mainly Cincinnati, is third with around 8%.
For machine-made goods the principal machines used are the bunch rollers and the suction table. The former rolls the bunch of filler leaves and presses them into shape. The suction table is used for wrapping the cigar. The operator places the wrapper leaf on a perforated plate. By pressing a foot lever a vacuum is created beneath this plate which holds the leaf smooth and snug against the table. The perforated plate is exactly the form which the wrapper must be to properly fit the cigar. It is easily cut around and trimmed to shape. The bunch from the bunch roller is then quickly encased in the wrapper. Human labor is necessary only to feed the machines and to spread the wrappers. 25,000 bunches can easily be wrapped in a week at a cost of $6 to $9 for labor (principally female) and the upkeep of the machine. This in labor[Pg 104] alone would formerly cost as much as $75.00. In the smaller “hand-made” factories, the method of procedure is about as follows: The leaf on receipt is opened and moistened. The “filler” leaf is separated from the wrapper. The filler leaf is made up into “books,” a “book” being a bunch of leaves suitable for one cigar. The loose books are then allowed to ferment for a week or so when they are ready for use. The bunchmaker selects and arranges his leaves from each book, selects his binder and rolls the whole into cigar form. If a mold is used he puts the bunch in a matrix of the mold and fastens down the cover until the leaves are pressed into shape. They then go to the wrapper man and are wrapped either by machine or by hand, according to the class of goods. The wrapping is begun at the lighting end and finished at the point which is called the head. After trimming to gauge, the cigar is ready for inspection and classification according to color, etc., and for banding.
For machine-made products, the main machines used are the bunch rollers and the suction table. The bunch rollers flatten and shape the bunch of filler leaves. The suction table is used for wrapping the cigar. The operator places the wrapper leaf on a perforated plate. By pressing a foot lever, a vacuum is created beneath this plate, holding the leaf tight and smooth against the table. The perforated plate is shaped exactly as the wrapper needs to be to fit the cigar properly. It’s easy to cut around and trim to shape. The bunch from the bunch roller is then quickly wrapped in the wrapper. Human labor is only needed to feed the machines and spread the wrappers. 25,000 bunches can easily be wrapped in a week at a cost of $6 to $9 for labor (mostly female) and machine maintenance. This cost in labor[Pg 104] used to be as high as $75.00. In smaller “hand-made” factories, the process goes something like this: The leaves are opened and moistened upon arrival. The “filler” leaf is separated from the wrapper. The filler leaves are grouped into “books,” with a “book” being a collection of leaves for one cigar. These loose books are then allowed to ferment for about a week until they're ready to use. The bunchmaker chooses and arranges the leaves from each book, picks the binder, and rolls everything into cigar form. If a mold is used, he places the bunch in a mold and secures the cover until the leaves are pressed into shape. They then go to the wrapper person and are wrapped either by machine or by hand, depending on the type of product. The wrapping starts at the lighting end and finishes at what is called the head. After trimming to size, the cigar is ready for inspection, classification by color, and banding.
Cigars according to their manufacture are classed for trade purposes in various ways. The trade nomenclature embraces the following descriptions: Cigars, little cigars, all-tobacco cigars, stogies and cheroots.
Cigars are categorized for trade purposes based on how they are made. The trade terminology includes the following terms: cigars, little cigars, all-tobacco cigars, stogies, and cheroots.
[Pg 105]Cigars proper have many subdivisions:
Cigars have many types:
(1) Imported Cigars. This term is usually confined to cigars made in Cuba, and does not include Porto Rican or Philippines.
(1) Imported Cigars. This term typically refers to cigars made in Cuba and does not include those from Puerto Rico or the Philippines.
(2) Porto Rico Cigars.
}Used for cigars made in those places.
(3) Philippine Cigars.
(2) Puerto Rico Cigars.
Understood. Please provide the text you'd like me to modernize.Used for cigars made in those locations.
(3) Philippine Cigars.
(4) Clear Havanas. This term denotes a cigar made by hand in the U. S. of Cuban tobacco exclusively and in the same style as in Cuba.
(4) Clear Havana cigars. This term refers to a cigar that is handcrafted in the U.S. using only Cuban tobacco, made in the same style as those in Cuba.
(5) Seed and Havana. Up to about 50 years ago there were no clear Havanas made in the U. S., the best produced being a combination of Havana leaf and leaf grown in the states from imported Havana seed. Hence the term which ordinarily means an American made cigar, the filler being wholly or partly of Cuban tobacco and the wrapper, a domestic or Sumatran leaf.
(5) Seed and Havana. Until about 50 years ago, there weren't any true Havanas made in the U.S.; the best cigars were a mix of Havana leaf and leaf grown in the states from imported Havana seeds. That’s why the term usually refers to an American-made cigar, with the filler being entirely or partially Cuban tobacco and the wrapper made from domestic or Sumatran leaf.
(6) Domestic Cigars. This term is used for cigars made in the U. S. in contra-distinction to imported cigars.
(6) Local Cigars. This term refers to cigars made in the U.S. as opposed to imported cigars.
(7) Nickel Goods. Ordinary 5c cigars made either entirely, of domestic tobacco or with a Sumatran wrapper, and usually made partly or wholly by machine. It also usually includes “segundos” or [Pg 106]“seconds,” i. e., cigars of a better type made to sell at higher prices but which on account of some defect are rejected on inspection. Sometimes clear Havanas made of scrap filler and inferior wrapper are included. These cigars have a vast variety of designations and make up the general stock of most cigar stores. The cost of production does not usually exceed $20.00 per thousand and they sell to dealers at from $25.00 to $30.00.
(7) Nickel Products. Regular 5-cent cigars made either entirely from domestic tobacco or with a Sumatran wrapper, and often made partially or completely by machine. This category usually includes “segundos” or [Pg 106]“seconds,” meaning cigars of a higher quality that are intended to be sold at higher prices but are rejected during inspection due to some flaw. Occasionally, clear Havanas made from leftover filler and lower-quality wrappers are included as well. These cigars come in a wide range of names and make up the general inventory of most cigar shops. The production cost typically doesn’t exceed $20.00 per thousand, and they are sold to dealers for between $25.00 and $30.00.
(8) Stogies, Tobies, Etc. Cheroots. Cigar shaped rolls of cheap domestic tobacco made quickly by machine, and of various sizes. Cheroots are open at both ends. The filler of stogies is usually a western grown leaf of full size, but rough quality. They are manufactured principally in Louisville, Cincinnati, Pittsburgh, Wheeling, etc.
(8) Cigars, Tobies, etc. Cheroots. Cigar-shaped rolls of inexpensive domestic tobacco made quickly by machine, available in various sizes. Cheroots are open at both ends. The filler of stogies is typically a full-sized, but lower-quality, western-grown leaf. They are mainly produced in Louisville, Cincinnati, Pittsburgh, Wheeling, etc.
One of the large tobacco companies operates about 25 large cigar factories in various centers of the U. S. Here are made all classes of domestic cigars, but all are made under the same conditions of sanitation, economic handling and strict supervision. The leaf is prepared, selected, fermented, blended, etc., in the company’s own special leaf houses and is [Pg 107]despatched to the various factories as needed. All the better class of domestic cigars are hand-made, machinery being used in making the cheaper grades. There are special factories for the making of “little cigars,” of which a vast number are made on account of their popularity. These include the package goods and those put up in cardboard boxes of which such brands as “Virginia Cheroots” and “Royal Bengals” are types. By the terms “little cigar” the trade recognizes all cigars under the regular standard size and which weigh less than 3 pounds per thousand. In some “little cigar” factories these little cigars are not made from inferior leaf. They are made usually from the small leaves of the tobacco intended for higher priced goods, but which on account of faulty size cannot be used. The leaf is, however, cured and prepared in exactly the same way. In addition the “scrap” or waste portions of the high priced leaf is used for fillers for little cigars. The little cigars of this type are usually of first-rate quality and on account of their small cost give excellent value to the smoker.
One of the large tobacco companies operates about 25 big cigar factories in different locations across the U.S. They produce all kinds of domestic cigars, but they're all made with the same standards of cleanliness, efficient handling, and strict oversight. The tobacco leaves are prepared, selected, fermented, blended, etc., in the company’s own special leaf houses and are [Pg 107]sent to the various factories as needed. All high-quality domestic cigars are hand-made, while machines are used for the cheaper ones. There are specific factories for making “little cigars,” of which a huge number are produced due to their popularity. This category includes packaged goods and those sold in cardboard boxes, with brands like “Virginia Cheroots” and “Royal Bengals” being examples. The term “little cigar” refers to all cigars that are smaller than the standard size and weigh less than 3 pounds per thousand. In some “little cigar” factories, these little cigars are not made from lower-quality leaves. Instead, they are usually made from the smaller leaves of tobacco meant for higher-priced products but can't be used because of size issues. The leaves are still cured and prepared in the same way. Additionally, the “scrap” or leftover parts of the premium leaves are used as fillers for these little cigars. These little cigars are generally of top quality and, because of their low price, offer great value for the smoker.
Cigars. Miscellaneous
Cigars. Various
There are a good many terms used in the cigar trade to denote color, size, quality, etc., which smokers should know the meaning of.[Pg 108] Most of these terms are Spanish, because the cigar trade was for a long time confined to Cuba.
There are quite a few terms used in the cigar industry to describe color, size, quality, and more, which smokers should understand.[Pg 108] Most of these terms are Spanish since the cigar trade was mainly centered in Cuba for a long time.
Terms used to denote the quality of cigar leaf
Terms used to describe the quality of cigar leaf
Desecho. The finest quality; the top leaves of plant; best because they have received most sunshine and dew.
Waste. The highest quality; the top leaves of the plant; the best because they have absorbed the most sunlight and dew.
Desechito. Good leaves but inferior to desecho.
Desechito. Good leaves but not as good as desecho.
Libra. Good leaves but small in size; the smaller top and bottom leaves.
Libra sign. Good leaves but small in size; the smaller leaves at the top and bottom.
Injuriado. Injured leaves; root leaves soil stained and injured by insects.
Injured. Injured leaves; root leaves soil marked and damaged by insects.
Terms used to denote color
Terms for describing color
Note: The color term refers to the wrapper only. Many smokers judge the mildness or strength of a cigar by its outside color. This is a fallacy. The wrapper constitutes only about 2 per cent of the cigar weight. Moreover color is no criterion of strength. The darkest cigar may be and usually is very mild. The color is due (1) to the soil, (2) to the age of the plant when cut, and (3) to the length of time of curing and fermentation. As a general rule the lighter the color the more inferior and immature is the tobacco. Cigar smokers should remember this.
Note: The color term refers to the wrapper only. Many smokers judge the mildness or strength of a cigar based on its outside color. This is a misconception. The wrapper makes up only about 2 percent of the cigar's weight. Additionally, color is not a reliable indicator of strength. The darkest cigar can be, and often is, very mild. The color is influenced by (1) the soil, (2) the age of the plant when harvested, and (3) the length of time it undergoes curing and fermentation. As a general rule, the lighter the color, the more inferior and immature the tobacco is. Cigar smokers should keep this in mind.
Claro or Clara. Very light colored. The lightest shade known in selected leaves.
Sure or Clara. Very light in color. The lightest shade recognized in chosen leaves.
Colorado. Red; medium in color.
Colorado. Red; medium shade.
Colorado Clara. Light Brown.
Colorado Clara. Light Brown.
Colorado Maduro. Dark Brown.
Colorado Maduro. Dark brown.
Maduro. Ripe; very dark, almost black in color.
Maduro. Ripe; very dark, nearly black in color.
Terms used to denote size and shape
Terms used to describe size and shape
Conchas. Shell; cigars so marked are 4¼″ long.
Sweet rolls. Shell; cigars marked like this are 4¼″ long.
Concha Fina. A first quality Concha.
Concha Fina. A top-quality Concha.
Concha Especial. Finely finished and somewhat larger than a Concha.
Special Concha. Nicely crafted and a bit bigger than a Concha.
Londres. London. Specially made for the London market and on account of its shape and length.
London. London. Specifically designed for the London market due to its shape and length.
Regalias. A cigar of a finer grade of tobacco than is used in Londres or Conchas.
Regalia. A cigar made from higher quality tobacco than what's used in Londres or Conchas.
Damas. Ladies; small cigar about 3″ long.
Ladies. Ladies; small cigar approximately 3 inches long.
Panatelas. A long thin cigar that has been heavily pressed.
Panatelas. A long, slender cigar that has been tightly packed.
Non plus ultra. A large handsome cigar made from the finest tobacco.
The best there is. A large, stylish cigar made from the best tobacco.
Escepcionales. Exceptionally large sized cigar.
Exceptional. Exceptionally large cigar.
Opera. A small after-dinner cigar about 3¼″ long.
Opera. A small after-dinner cigar that's about 3¼″ long.
Princesses. Like the Opera, but thinner.
Princesses. Like the opera, but slimmer.
Coquettas. Flirt; 3½″ long.
Flirty. Flirt; 3½″ long.
Brevas. A short, thick cigar.
Brevas. A short, fat cigar.
Noblesse. The largest and most expensive cigars.
Noblesse. The largest and most expensive cigars.
In addition to the above there is a multitude of trade names, such as Club House, Hoffman House, Rothschilds, Invincibles, Perfectos, etc., etc. Some of these terms merely denote particular brands put out by certain makers and to distinguish their products. The Spanish terms refer to the cigar itself and not to the maker. They may be used by any maker, and no longer refer to any standard of excellence.
In addition to the above, there are many trade names, like Club House, Hoffman House, Rothschilds, Invincibles, Perfectos, and so on. Some of these names just represent specific brands put out by certain manufacturers to differentiate their products. The Spanish terms refer to the cigar itself and not to the manufacturer. They can be used by any maker and no longer indicate any standard of quality.
(See __A_TAG_PLACEHOLDER_0__)
CHAPTER XII
CIGARS AND THEIR QUALITIES
CIGARS AND THEIR FEATURES
Qualities of cigars and cigar leaf. Imported cigars.
Havanas. Domestic cigars.
Cigar and cigar leaf qualities. Imported cigars.
Havanas. Local cigars.
CIGARS AND THEIR QUALITIES
Cigars and Their Qualities
A cigar consists essentially of three distinct parts: the body or inner part called the filler; the covering of the filler which is called the binder; and the outside finishing cover which is called the wrapper. Cuban cigars, however, consist of filler and wrapper only.
A cigar is basically made up of three main parts: the body or inner part known as the filler; the layer that covers the filler called the binder; and the outer finishing layer referred to as the wrapper. Cuban cigars, on the other hand, only include the filler and the wrapper.
Except in the case of cigars made in Cuba the wrapper leaf is usually of a different class of tobacco from the rest of the cigar, as the qualities to be fulfilled by each part is different. The qualities required in a cigar must be viewed both from the smokers’ and the manufacturers’ standpoints and the leaf must be such as to conform to these qualities. Thus the smoker is concerned with the burning quality, the taste, flavor, aroma, color, general appearance and strength of the cigar. The manufacturer in addition to seeking leaf that will answer the smokers’ requirements also has an eye to economy and requires the leaf to have qualities regarding size, weight, texture, etc. Therefore, in the best cigar leaf the following qualities are more or less essential: (1) good color, (2) fair body, (3) a continuous pleasant aroma, (4) fine texture combined with a certain toughness, (5) small ribs and veins, (6) good combustion so that it will hold fire for 4 or five minutes.[Pg 114] The burning must be free and even with a white or whitish-brown ash which remains intact until cigar is three-fourths smoked, (7) good size of leaf, (8) must be elastic and souple, must not be brittle, (9) it must be free from spots and light in weight.
Except for cigars made in Cuba, the wrapper leaf is usually a different type of tobacco than the rest of the cigar, because each part serves different purposes. The qualities needed in a cigar must be considered from both the smoker's and the manufacturer's perspectives, and the leaf must meet these standards. So, the smoker cares about how well it burns, the taste, flavor, aroma, color, overall look, and strength of the cigar. The manufacturer, while also focusing on the smoker's needs, has to think about cost-effectiveness and looks for leaves that meet criteria like size, weight, and texture. Therefore, the best cigar leaf should have the following qualities: (1) good color, (2) decent body, (3) a consistent pleasant aroma, (4) fine texture with some toughness, (5) small ribs and veins, (6) good combustion so it stays lit for 4 or 5 minutes.[Pg 114] The burning should be smooth and even, with a white or light brown ash that stays intact until the cigar is three-quarters smoked, (7) good leaf size, (8) elastic and supple, not brittle, (9) free from spots, and lightweight.
Some of these qualities are essential in filler leaf; some in wrapper leaf. Thus the color of filler leaf does not matter; neither does the aroma of the wrapper the essential qualities of which are color, lightness and elasticity.
Some of these traits are essential in filler leaf; others in wrapper leaf. So, the color of filler leaf doesn't matter; nor does the aroma of the wrapper, whose key qualities are color, lightness, and elasticity.
The cigars consumed in the U. S. are either (a) Imported or (b) Home Manufactured.
The cigars used in the U.S. are either (a) Imported or (b) Made at home.
(a) Imported Cigars
Imported Cigars
The most important of the imported cigars are those that come from Cuba, Porto Rico and the Philippines.
The most important imported cigars are those from Cuba, Puerto Rico, and the Philippines.
Up to the time of the Civil War cigars were imported principally from Germany and Cuba and the value was about 4½ million dollars annually. High import duties have, however, altered this and the number of imported cigars is nearly 90 per cent less than formerly. The value of the import has not, however, fallen so much, that is to say only the higher grades of cigars are imported. The value of cigars now imported does not exceed 3 million dollars annually and they are principally Cuban.
Up until the Civil War, cigars were mainly imported from Germany and Cuba, with an annual value of about $4.5 million. However, high import duties have changed this, and the number of imported cigars is now nearly 90 percent lower than before. The overall value of the imports hasn't dropped as much; in other words, only the higher quality cigars are being imported. Now, the value of imported cigars is about $3 million a year, and they are mostly from Cuba.
Cuban, or so-called Havana, Cigars
Cuban, or Havana, Cigars
As the strictest laws are enforced in Cuba against the importation of tobacco, it follows that all genuine so-called Havana cigars are made of Cuban tobacco. The Havana Tobacco Co. controls about 260,000 acres of the best Cuban tobacco land and has 25 factories in the City of Havana. Here Havana cigars are made in all grades from those which can be bought at 2 for 25c to those which cost $2.00 each. The high priced are very limited in quality, being made from tobacco grown in specially favored districts. The Province of Pinar del Rio produces 70 per cent of the whole Cuban crop, and includes the celebrated District of Vuelta Abajo in which the finest cigar tobacco in the world is grown; the Provinces of Havana and Santa Clara each produces about 13 per cent of the Cuban crop. Havana Partidio leaf is of very fine quality and is used principally as wrappers of clear Havanas. Havana Remedios leaf comes from Santa Clara, has a high flavor, rather heavy body and is used mostly for fillers.
As the strictest laws are enforced in Cuba against importing tobacco, it follows that all authentic Havana cigars are made from Cuban tobacco. The Havana Tobacco Co. controls about 260,000 acres of the best Cuban tobacco land and has 25 factories in the City of Havana. Here, Havana cigars are produced in all grades, ranging from those that can be bought at 2 for 25 cents to those that cost $2.00 each. The high-priced ones are very limited in quantity, made from tobacco grown in specially favored regions. The Province of Pinar del Rio produces 70 percent of the entire Cuban crop, including the renowned District of Vuelta Abajo, where the finest cigar tobacco in the world is cultivated; the Provinces of Havana and Santa Clara each contribute about 13 percent of the Cuban crop. Havana Partidio leaf is of very high quality and is primarily used as wrappers for clear Havanas. Havana Remedios leaf, sourced from Santa Clara, has a strong flavor, relatively heavy body, and is mostly used for fillers.
The very finest Havana cigars never leave Cuba, for the merchant keeps them for his own use. He is a smoker before a trader. The crop of the very best Vuelta Abajo tobacco is so small that not more than about 30,000 cigars can be made from it. These are kept for [Pg 116]private purchasers and none go on the market. The finest Havanas are of an even tint of rich dark brown, free from all stains and spots, burning freely to a white or whitish-brown ash, and holding fire for 4 or 5 minutes. Altogether the District of Vuelta Abajo produces about one-quarter million bales of leaf annually and about one-tenth of this is high class and produces up to 20 dollars per lb. on the spot.
The best Havana cigars never leave Cuba because the merchant keeps them for himself. He prefers smoking to trading. The crop of the finest Vuelta Abajo tobacco is so limited that only about 30,000 cigars can be made from it. These are saved for [Pg 116]private buyers and none are sold on the market. The top-grade Havanas have a consistent hue of rich dark brown, are free from stains and spots, burn evenly to a white or light brown ash, and stay lit for 4 to 5 minutes. Overall, the Vuelta Abajo region produces about a quarter of a million bales of leaf each year, with about one-tenth of that being high quality, fetching up to 20 dollars per pound right after harvest.
As stated previously, Cuban cigars have no binder. They consist of filler and wrapper only and are all hand-made. The unique position which these cigars have held for so long is due not only to perfect curing and blending of the leaf, but also to the superior skill of the Cuban workmen who are the most expert cigarmakers and blenders in the world, and who in the best factories are allowed to take all the time they need in making the cigar. Some of these “Tabacqueros” have been making the same brand of cigar for 20 years or longer.
As mentioned earlier, Cuban cigars don't use a binder. They are made up of just filler and wrapper, and they're all hand-crafted. The long-standing reputation of these cigars stems not only from the perfect curing and blending of the leaf but also from the exceptional skill of the Cuban workers, who are the best cigarmakers and blenders in the world. In top factories, they're allowed to take as much time as they need to create the cigars. Some of these "Tabacqueros" have been making the same brand for 20 years or more.
Of the total annual output of Cuban made cigars, England takes about 40 per cent, the U. S. about 25 per cent and Germany 13 per cent. In 1913, the U. S. imported 659,358 lbs. of cigars and cheroots from Cuba valued for $3,999,410.
Of the total annual production of cigars made in Cuba, England accounts for about 40 percent, the U.S. for around 25 percent, and Germany for 13 percent. In 1913, the U.S. imported 659,358 pounds of cigars and cheroots from Cuba, valued at $3,999,410.
Porto Rico Cigars
Puerto Rico Cigars
From Porto Rico the U. S. ships about 125 million cigars annually.
From Puerto Rico, the U.S. ships about 125 million cigars every year.
Philippine Cigars
Philippine Cigars
The laws in force between the U. S. and the Philippine Islands, governing the tariff, provide for the importation annually from the Philippines to the U. S. free of import duties, of cigar wrapper leaf and filler leaf mixed or packed with more than 15 per cent of wrapper leaf, not in excess of 300,000 lbs.; of filler leaf alone not in excess of 1,000,000 lbs.; and manufactured cigars in number not exceeding 150,000,000. The shipping must be direct.
The laws currently in effect between the U.S. and the Philippine Islands regarding tariffs allow for the annual importation from the Philippines to the U.S. of cigar wrapper leaf and filler leaf mixed or packed with over 15% wrapper leaf, up to 300,000 lbs.; of filler leaf alone, up to 1,000,000 lbs.; and manufactured cigars, not exceeding 150,000,000 in number. Shipping must be direct.
As the Philippine leaf is excellent and labor there is cheap, the U. S. smoker is thus enabled to get a very good smoke at a small cost. The full number of cigars allowed at least is imported. In 1913 the importation of Philippine cigars and cheroots to the U. S. was 1,641,832 lbs. valued at $2,296,823.
As the Philippine leaf is top-notch and labor costs are low, U.S. smokers can enjoy a great smoke at a low price. The total number of cigars allowed for importation is at least met. In 1913, the U.S. imported 1,641,832 lbs of Philippine cigars and cheroots, valued at $2,296,823.
Home Manufactured Cigars
Homemade Cigars
For the home manufactured cigar trade the leaf used is either imported or home grown.
For the home-produced cigar trade, the tobacco used is either imported or locally grown.
Imported cigar leaf comes principally from Cuba, Dutch East Indies (Sumatra, Java, etc.), Porto Rico, Mexico, Brazil, and the Philippines.
Imported cigar leaf mainly comes from Cuba, the Dutch East Indies (Sumatra, Java, etc.), Puerto Rico, Mexico, Brazil, and the Philippines.
[Pg 118]Imported Cuban leaf is used both as fillers and wrappers. The U. S. as already stated imports about 26 million lbs. annually. The leaf varies in length from 8″ to 18″; is a rich brown color, and its principal characteristic is its fine flavor and aroma, which is unequalled by any other tobacco in the world.
[Pg 118]Imported Cuban tobacco is used for both fillers and wrappers. As previously mentioned, the U.S. imports about 26 million pounds each year. The tobacco leaves range in length from 8 to 18 inches, have a rich brown color, and are known for their exceptional flavor and aroma, unmatched by any other tobacco worldwide.
The Sumatran leaf is perhaps more important in the U. S. cigar trade than the Cuban leaf. It is used exclusively as wrappers, on account of its fine light brown color, its elastic texture and light weight. The genuine imported leaf is much less in weight than that grown from Sumatran seed in Florida. About 2 lbs. of imported Sumatran leaf will wrap 1,000 cigars. Its length is usually from 14 to 20 inches and the U. S. imports annually about 7 million lbs., valued at about 5 million dollars. The use of Sumatran leaf as a wrapper for home-made cigars has increased remarkably in the last quarter century. In the quinquennium ending 1885 the number of such cigars was 34 millions. In the last quinquennium the number exceeded 2,000 millions.
The Sumatran leaf is probably more significant in the U.S. cigar trade than the Cuban leaf. It’s used exclusively as wrappers because of its nice light brown color, elastic texture, and lightweight. Genuine imported leaf weighs much less than that grown from Sumatran seeds in Florida. About 2 lbs. of imported Sumatran leaf can wrap 1,000 cigars. Its length typically ranges from 14 to 20 inches, and the U.S. imports around 7 million lbs. annually, worth about 5 million dollars. The use of Sumatran leaf as a wrapper for homemade cigars has surged remarkably in the last 25 years. In the five years ending in 1885, the number of such cigars was 34 million. In the last five years, the number surpassed 2 billion.
The Sumatran leaf has little aroma or flavor and its value is for appearance only. The average prices paid by the United States for imported cigar leaf in 1914 was: for leaf suitable[Pg 119] for cigar making, 127c per lb.; for “other leaf,” 50.44c per lb.
The Sumatran leaf doesn't have much smell or taste; its worth is only in how it looks. In 1914, the average prices that the United States paid for imported cigar leaf were: for leaf suitable[Pg 119] for making cigars, 127 cents per pound; for "other leaf," 50.44 cents per pound.
Other Imported Cigar Leaf
Other Imported Cigar Leaf
Since the introduction of tax-free manufactured cigars from the Philippines the importation of leaf has declined.
Since tax-free manufactured cigars from the Philippines were introduced, the import of leaf has dropped.
Mexican leaf is used as a substitute for Cuban, to which it is inferior.
Mexican leaf is used as a substitute for Cuban leaf, but it's not as good.
The imports of cigar leaf tobacco from Porto Rico and Brazil are relatively unimportant.
The imports of cigar leaf tobacco from Puerto Rico and Brazil aren't very significant.
Cigar Leaf Tobacco Grown in the U. S.
Cigar leaf tobacco grown in the U.S.
The home grown tobacco leaf used in the cigar manufacturing trade of the U. S. is grown principally in the states of Connecticut, New York, Pennsylvania, Ohio, Wisconsin, Florida, Georgia, and Texas. The Connecticut leaf is used for wrappers and binders. The Ohio and Pennsylvania leaf almost exclusively for fillers. Wisconsin produces binder leaf particularly. The leaf grown elsewhere is used mostly as wrappers. It is usual, however, to use the imported and Sumatran leaf as wrappers for all high class home-made cigars.
The tobacco grown in the U.S. for cigar production mainly comes from Connecticut, New York, Pennsylvania, Ohio, Wisconsin, Florida, Georgia, and Texas. Connecticut tobacco is used for wrappers and binders, while Ohio and Pennsylvania tobacco is primarily used for fillers. Wisconsin mainly produces binder tobacco. Tobacco from other regions is mostly used as wrappers. However, it's common to use imported and Sumatran tobacco as wrappers for all high-quality homemade cigars.
The finest American grown wrapper leaf is raised in Connecticut. The best known brands are known as Connecticut Seedleaf and Connecticut Broadleaf, both varieties raised originally[Pg 120] from imported Havana seed. The leaf is destitute of thick fibers and has a fine texture. They run from 14″ to 26″ in length, giving good wrapping capacity.
The best American-grown wrapper leaf comes from Connecticut. The most popular brands are referred to as Connecticut Seedleaf and Connecticut Broadleaf, both varieties originally from imported Havana seed. The leaf is free of thick fibers and has a smooth texture. They range from 14 to 26 inches in length, providing excellent wrapping capability.
The Pennsylvania leaf is also classed as Seed and Broadleaf. It is about the same size as the Connecticut, but does not equal it in quality. The principal varieties in Ohio are the Gebhardt, Zimmer, Spanish, and Little Dutch. These do not usually exceed 20″ in length. Florida cigar leaf is usually small, running from 10″ to 14″ in length.
The Pennsylvania leaf is also categorized as Seed and Broadleaf. It's roughly the same size as the Connecticut, but it doesn't match its quality. The main types found in Ohio are the Gebhardt, Zimmer, Spanish, and Little Dutch. These typically don't go beyond 20 inches in length. Florida cigar leaf is usually small, measuring between 10 and 14 inches long.
(For references see Chapter XV)
(For references see __A_TAG_PLACEHOLDER_0__)
CHAPTER XIII
PIPE SMOKING AND CHEWING TOBACCOS
Pipe Smoking and Chewing Tobacco
Qualities required. Description of kinds.
Perique tobacco. Statistics.
Required qualities. Description of types.
Perique tobacco. Information.
PIPE SMOKING AND CHEWING TOBACCOS
Pipe smoking and chewing tobacco
For pipe smoking mixtures the tobacco leaf used is of various kinds. Preferred strains of leaf from Virginia, North and South Carolina, Tennessee, Kentucky, Maryland, and East Ohio, to which is added sometimes Turkish, Latakia, Perique, and a little Havana. The blend is made while the tobacco is in leaf form, portions of the desired kinds being assembled in accordance with a formula followed by the manufacturer. The leaf is then put through the required mechanical processes.
For pipe smoking blends, the tobacco leaf used comes in different varieties. Preferred types of leaf from Virginia, North and South Carolina, Tennessee, Kentucky, Maryland, and East Ohio are used, sometimes mixed with Turkish, Latakia, Perique, and a bit of Havana. The blend is created while the tobacco is still in leaf form, with the specific types being combined according to a formula set by the manufacturer. The leaf then undergoes the necessary mechanical processes.
The qualities necessary in pipe smoking tobaccos are that it must burn evenly, slowly, smoothly and thoroughly; it must have an agreeable aroma; it must not cause a burning or acrid sensation in the mouth when smoked; it is desirable that its nicotine contents should be low. Appearance is not of any consequence, but the manufacturer looks for leaf that, in addition to the above qualities, is free from gumminess as this interferes with granulation and cutting; also that the leaf may be a good absorbing kind in order that it may imbibe the juices with which this class of manufactured tobacco is treated both for chewing and pipe smoking.
The qualities needed in pipe smoking tobaccos are that it should burn evenly, slowly, smoothly, and completely; it should have a pleasant aroma; it shouldn't create a burning or harsh sensation in the mouth when smoked; and it's preferable that its nicotine content is low. Appearance doesn't really matter, but the manufacturer looks for leaves that, in addition to these qualities, are free from gumminess as this can interfere with grinding and cutting; also, the leaves should be good at absorbing so they can soak up the flavorings used in this type of tobacco for both chewing and pipe smoking.
[Pg 124]As the taste of smokers with regard to the flavor and aroma of pipe tobacco varies considerably, some desiring a strong, others a mild or light tobacco, this must be taken into account by the manufacturer and the blends graded accordingly.
[Pg 124]Since smokers have different preferences when it comes to the flavor and aroma of pipe tobacco, with some wanting something strong and others preferring a milder or lighter tobacco, manufacturers need to consider this and grade their blends accordingly.
Pipe smoking tobaccos are distinguished according to the different mechanical processes used in their production. Thus there are (1) Granulated, (2) Plug-cut, (3) Long-cut, (4) Fine-cut, etc. In former days it was customary for smokers to buy their tobacco in the roll or twist and cut and manipulate it themselves. This custom has, however, passed away almost entirely in the U. S. It still survives to a large extent in Europe where smokers prefer their tobacco moist. In the U. S. pipe smoking tobacco is usually cut and ready for the pipe and sold in packages or cans.
Pipe smoking tobaccos are classified based on the different mechanical processes used to make them. These include (1) Granulated, (2) Plug-cut, (3) Long-cut, (4) Fine-cut, etc. In the past, it was common for smokers to buy their tobacco in rolls or twists and cut and manipulate it themselves. However, this practice has nearly disappeared in the U.S. It still largely exists in Europe, where smokers prefer their tobacco to be moist. In the U.S., pipe smoking tobacco is typically cut and ready for use, and it's sold in packages or cans.
Granulated is tobacco that has been flaked by breaking or cutting machines with blunt teeth or saws and then passed over a series of oscillating sieves of graded mesh.
Granulated is tobacco that has been processed by machines with blunt teeth or saws that break or cut it into flakes, and then it gets sifted through a series of vibrating screens with different mesh sizes.
Plug-cut or Cut-plug is first made into plugs by pressure. These plugs are then cut into thin slices convenient for crumbling. The slices are put up in packages in which form the smoker uses it. Special forms of cut-plug are, bird’s-eye, short-cut, cube-cut, straight-cut,[Pg 125] curly-cut, wavy-cut and cavendish-cut; the name being determined by the shape of the cut slices. “Navy-cut” is a particular kind of plug which was originally prepared directly by shipmen.
Plug cut or Cut plug is first made into plugs by applying pressure. These plugs are then sliced into thin pieces that are easy to crumble. The slices are packaged in a way that the smoker can use them. Special types of cut-plug include bird’s-eye, short-cut, cube-cut, straight-cut,[Pg 125] curly-cut, wavy-cut, and cavendish-cut; the name is based on the shape of the slices. “Navy-cut” is a specific type of plug that was originally made directly by sailors.
Long-cut tobacco is leaf cut into long shreds. It differs from plug-cut in not having been pressed into solid plugs before cutting.
Long cut tobacco is leaf shredded into long strips. It’s different from plug-cut because it hasn't been compressed into solid plugs before being cut.
Fine-cut is finer and shorter shreds than the long-cut, and the tobacco used is usually of a less gummy kind.
Fine-cut refers to shorter and thinner shreds compared to the long-cut, and the tobacco used is typically of a less sticky variety.
Other varieties known in the trade are:
Other varieties known in the market are:
German Smoking. A coarse-grained, heavy tobacco with strong flavor. It is a coarse granulated tobacco.
German smoking. A rough, heavy tobacco with a bold flavor. It is a coarse, granulated tobacco.
Strips. A fine shredded or powdered tobacco used principally in the mining camps of Pennsylvania.
Strips. A finely shredded or powdered tobacco primarily used in the mining camps of Pennsylvania.
Scrap. Smoking tobacco made up from cigar clippings and cheap cigar leaf of the filler and binder type.
Trash. Cheaper tobacco made from cigar trimmings and low-quality cigar leaves used in fillers and binders.
Perique Tobacco
Perique tobacco
Perique tobacco is a specially dark, rich variety having special qualities which render it desirable as a component in pipe smoking mixtures, or for straight smoking. Genuine Perique is grown and prepared only in the Parish of St. James in the State of Louisiana[Pg 126] by the descendants of the old French Colonists. The properties which it possesses are essentially due to the peculiar method of curing and fermentation and not to any peculiarity in the leaf itself. It is the only tobacco in the United States that is grown and put in its final condition for the consumer by the farmer. It is said that the output of genuine Perique is small, being well under 50,000 lbs. annually. But there is a good deal of substitute Perique sold in lieu of the genuine kind.
Perique tobacco is a dark, rich variety with unique qualities that make it a sought-after ingredient in pipe smoking blends or for straight smoking. Authentic Perique is grown and processed only in St. James Parish, Louisiana, by the descendants of the early French settlers. Its distinctive properties result mainly from the special curing and fermentation methods used, rather than any unique characteristics of the leaf itself. It’s the only type of tobacco in the United States that is grown and prepared for sale directly by the farmer. The genuine output of Perique is reportedly small, totaling under 50,000 pounds each year. However, a lot of substitute Perique is sold in place of the real thing.[Pg 126]
The tobacco is raised on a black, deep, exceedingly rich soil. The leaf is medium in size, about 18″ long, and a rapid grower. The stem is small, the fiber tough and gummy.
The tobacco is grown in dark, deep, very fertile soil. The leaves are medium-sized, around 18 inches long, and grow quickly. The stem is small, and the fiber is strong and sticky.
In curing no artificial heat is used. The leaf is hung in sheds for about 10 days. It is then stripped into half leaves. These are taken in bundles of about 20 each and converted into rough “twists.” A dozen or so “twists” are packed in a box 11″ square the weight being about 50 lbs. The contents of the box are then submitted to a pressure of about 7000 lbs. for at least 24 hours. The tobacco is then taken out and the twists again opened up. The leaves are exposed to the air and sunlight until an exudate appears on them and is reabsorbed. This is done over and over again for at least 10 days or until in appearance the tobacco[Pg 127] is quite black. That is to say the curing of Perique is accomplished by allowing it to soak its own juice and then submitting to heavy pressure and repeating this process several times. When the leaf is cured it is made into rolls or “carottes.” A cotton cloth 24″ x 18″ is taken and covered with leaves. Others are spread crosswise over these. Then rolled and a thin rope is wound very tightly about each bundle or “carotte.” This process like the curing is repeated over and over again. One man can handle about 10 carottes in a day, the weight being about 4 lbs. each.
In curing, no artificial heat is used. The leaves are hung in sheds for about 10 days. They are then stripped into half leaves. These are taken in bundles of about 20 each and turned into rough “twists.” A dozen or so “twists” are packed in a box that’s 11 inches square, weighing about 50 lbs. The contents of the box are then subjected to a pressure of about 7000 lbs. for at least 24 hours. The tobacco is then taken out, and the twists are opened up again. The leaves are exposed to air and sunlight until a moisture appears on them and is reabsorbed. This is done repeatedly for at least 10 days, or until the tobacco looks quite black. That is to say, the curing of Perique is achieved by allowing it to soak its own juice, then applying heavy pressure and repeating this process several times. Once the leaves are cured, they are made into rolls or “carottes.” A cotton cloth measuring 24 inches by 18 inches is spread out with leaves on top. More leaves are laid crosswise over these, then rolled up, and a thin rope is tightly wound around each bundle or “carotte.” This process, like the curing, is repeated multiple times. One person can handle about 10 carottes in a day, with each weighing around 4 lbs.
Perique is considered to have a finer aroma than any other pipe smoking tobacco and its presence in a mixture is at once detected by the experienced smoker. It is said to contain only ¼ of the citric acid, ½ of the nitric acid and 6 times as much acetic acid as tobacco cured in air. The resultant aroma is rich and fragrant, and the taste is smooth, delicate and agreeable. It is also claimed that it stimulates the brain without in any way being hurtful to the digestive or nervous systems.
Perique is thought to have a better aroma than any other pipe tobacco, and experienced smokers can easily pick it out in a blend. It supposedly has only ¼ of the citric acid, ½ of the nitric acid, and six times more acetic acid than tobacco that’s air-cured. The resulting aroma is rich and fragrant, and the flavor is smooth, delicate, and pleasant. It's also said to stimulate the brain without harming the digestive or nervous systems in any way.
When the carottes are finally made it is usual to leave them under pressure for at least 12 months. The aroma is said to improve as the tobacco grows older.
When the carottes are finally ready, it's common to leave them under pressure for at least 12 months. The aroma is said to get better as the tobacco ages.
[Pg 128]It has been stated above that much of the Perique tobacco is a substitute for the genuine. This substitute is made by taking inferior leaf and submitting it to a similar process, i. e., pressure and oxidation repeatedly. The process is abridged but a black tobacco results particularly when certain darkening ingredients are added. The moral is if you want genuine Perique be sure where you get it, and don’t grudge the price.
[Pg 128]It has been mentioned earlier that a lot of Perique tobacco is often a fake. This imitation is made by using low-quality leaves and putting them through a similar process, meaning they’re pressed and oxidized repeatedly. The process is shortened, but it leads to a black tobacco, especially when certain darkening ingredients are added. The takeaway is: if you want real Perique, make sure you know where to buy it, and don't hesitate to pay the price.
Chewing Tobacco
Chewing Tobacco
The particular qualities required in leaf for this purpose are toughness, sweetness of taste, and a richness in oils and gums. Suitable leaf having been selected the leaf is cut and moulded into small plugs or “chews” which are put up in boxes for the market. Flavoring essences are of course plentifully used.
The specific qualities needed in the leaf for this purpose are durability, sweetness, and richness in oils and gums. Once the right leaf is chosen, it is cut and shaped into small plugs or "chews" that are packed in boxes for sale. Flavoring essences are, of course, used abundantly.
As well as plug, chewing tobacco may be of the variety known as twist, the leaves being spun and twisted in a continuous roll.
As well as plug, chewing tobacco can also be the type known as twist, where the leaves are spun and twisted into a continuous roll.
The plug consists of a wrapper and filler like the cigar, the brighter and better grades of leaf being used as wrappers. Burley leaf and the yellow leaf tobacco of Virginia, Kentucky and the Carolinas are principally used. The substances used for flavoring are liquorice, cane sugar, maple sugar, molasses, and rum, [Pg 129]principally. The plugs are packed in boxes of 72 lbs. each, and also smaller boxes of 10 and 12 lbs. each.
The plug is made up of a wrapper and filler similar to a cigar, with the higher quality leaves used as wrappers. Burley leaf and yellow tobacco from Virginia, Kentucky, and the Carolinas are mainly used. The flavoring agents include licorice, cane sugar, maple sugar, molasses, and rum, [Pg 129] primarily. The plugs are packed in boxes of 72 lbs. each, as well as smaller boxes of 10 and 12 lbs. each.
The principal centers of the manufacture of pipe smoking and chewing tobacco are Missouri (St. Louis); North Carolina (Durham and Winston); Kentucky (Louisville); New Jersey (Jersey City); Virginia (Richmond) and Ohio (Cincinnati).
The main places where pipe smoking and chewing tobacco are made include Missouri (St. Louis), North Carolina (Durham and Winston), Kentucky (Louisville), New Jersey (Jersey City), Virginia (Richmond), and Ohio (Cincinnati).
There are altogether about 400 establishments employing about 20,000 persons, and the value of the product is over 100 million dollars annually.
There are around 400 businesses employing about 20,000 people, and the annual value of their products exceeds 100 million dollars.
This class of products is by its nature more suitable for concentration of manufacture than either cigars or cigarettes. Hence the small number of establishments.
This category of products is inherently more suitable for centralized manufacturing than either cigars or cigarettes. As a result, there are only a few establishments.
Only about 10 million lbs. of manufactured tobacco is exported.
Only about 10 million pounds of manufactured tobacco are exported.
(See __A_TAG_PLACEHOLDER_0__)
CHAPTER XIV
CIGARETTES
CIGARETTES
Statistics. Kinds and where made. Imported Cigarettes.
Domestic
Cigarettes. Cigarette papers.
Statistics. Types and where they are made. Imported Cigarettes.
Domestic Cigarettes. Cigarette papers.
CIGARETTES
Cigarettes
A cigarette according to the meaning of the word is a small cigar. It consists of a roll of loose tobacco wrapped in a case of either paper or tobacco-leaf. In the latter case it is known as an all-tobacco cigarette.
A cigarette, by definition, is a small cigar. It is made of a roll of loose tobacco wrapped in a casing of either paper or tobacco leaf. When it's wrapped in tobacco leaf, it's referred to as an all-tobacco cigarette.
Since the introduction of cigarette making machinery the output of cigarettes in the United States has grown enormously. This will be seen from the following figures which represent the output of cigarettes for the past 25 years:
Since the introduction of cigarette-making machines, the production of cigarettes in the United States has skyrocketed. This is evident from the following figures that show the cigarette output over the past 25 years:
Year | Number of cigarettes manufactured in the United States. | |
1890 | 2,000,000,000 | |
1895 | 3,500,000,000 | |
1900 | 4,000,000,000 | |
1905 | 6,500,000,000 | |
1910 | 7,000,000,000 |
These figures taken from Government Reports are given in round numbers. They include “little cigars” which form about 15% of the totals. About one-third is at present exported. In addition to the manufactured cigarettes there is, of course, the large amount of cigarettes made directly by the smoker himself.
These numbers from government reports are rounded. They include “little cigars,” which make up about 15% of the total. Currently, about one-third is exported. Besides manufactured cigarettes, there's also a significant amount of cigarettes rolled directly by the smoker.
[Pg 134]There are only about 500 establishments in the whole U. S. engaged in cigarette manufacture and about ten of these manufacture four times as many as all the rest together. There would in fact be fewer factories except for the popularity of certain brands of hand-made cigarettes. 95% of the total output is made in 4 cities, i. e., New York, Durham, N. C.; Richmond, Va.; and New Orleans. New York City alone manufactures about 60% of the whole; Richmond about 16%; New Orleans about 10% and Durham the balance.
[Pg 134]There are only about 500 businesses in the entire U.S. that produce cigarettes, and around ten of them make four times as many as all the others combined. In fact, there would be fewer factories if it weren't for the popularity of certain brands of hand-rolled cigarettes. 95% of the total production comes from four cities: New York, Durham, N.C.; Richmond, Va.; and New Orleans. New York City alone produces about 60% of the total; Richmond makes about 16%; New Orleans contributes about 10%, and Durham makes up the rest.
Every country manufactures its own peculiar brand of cigarettes. The best known and most popular kinds of cigarettes are those known as Virginian, Turkish, Havana, Porto Rican, Mexican, Russian and Philippine.
Every country produces its own unique type of cigarettes. The most recognized and popular types of cigarettes are those known as Virginian, Turkish, Havana, Puerto Rican, Mexican, Russian, and Philippine.
The Havana, Porto Rican, Mexican and Philippine cigarettes are usually of the all-tobacco kind—the others being paper wrapped. They are generally made from the cuttings and smaller leaves of cigar leaf tobacco.
The Havana, Puerto Rican, Mexican, and Philippine cigarettes are usually all-tobacco types—the others are paper-wrapped. They are typically made from the trimmings and smaller leaves of cigar leaf tobacco.
Turkish cigarettes are celebrated all the world over. The name is however mostly a misnomer, for nearly all the so-called Turkish cigarettes proper are made in Egypt, Greece, etc., and not in Turkey. In Egypt, however, the best Turkish cigarettes are made from tobacco grown in Turkey (in Europe) which[Pg 135] is imported, as no tobacco is grown in Egypt. The peculiar flavor of Egyptian Turkish cigarettes is due to special methods known only to the makers there.
Turkish cigarettes are famous all over the world. However, the name is mostly a misnomer because almost all the so-called Turkish cigarettes are actually made in Egypt, Greece, and other places, not in Turkey. In Egypt, the best Turkish cigarettes are made from tobacco grown in Turkey (in Europe), which[Pg 135] is imported since no tobacco is produced in Egypt. The unique flavor of Egyptian Turkish cigarettes comes from special methods that only the local manufacturers know.
The crop of Turkish tobacco, particularly of the better kinds suitable for cigarettes, is small and less than half of it is exported. The supply of genuine Turkish cigarette tobacco is, therefore, strictly limited and does not find its way into ordinary channels. Much of so-called “Turkish” tobacco comes from China, and other parts of Asia. From Turkey, in Europe, the United States annually imports at present about ten million lbs., the actual government figures for 1913 being 10,816,048 lbs. valued at about 5½ million dollars.
The harvest of Turkish tobacco, especially the higher quality types suitable for cigarettes, is limited, with less than half of it being exported. As a result, the availability of authentic Turkish cigarette tobacco is quite restricted and doesn’t end up in regular distribution. A lot of the tobacco labeled as “Turkish” actually comes from China and other parts of Asia. Currently, the United States imports about ten million pounds of Turkish tobacco from Europe each year, with the official government figures for 1913 being 10,816,048 pounds, valued at approximately 5.5 million dollars.
From Turkey in Asia the imports in 1912 were 11,233,546 lbs., and in 1913, 18,955,295, this latter being valued at nearly 5 million dollars. It does not follow that all this latter is Turkish. It was probably in large part collected from distant points and shipped from ports in Asia Minor. The imports of Turkish tobacco during 1914 are considerably reduced on account of the war.
From Turkey in Asia, the imports in 1912 were 11,233,546 lbs., and in 1913, 18,955,295 lbs., which was valued at almost 5 million dollars. However, this doesn’t necessarily mean that all of it was from Turkey. Much of it was likely collected from distant areas and shipped from ports in Asia Minor. The imports of Turkish tobacco during 1914 were significantly lower due to the war.
One American company which does an immense business in the cigarette line maintains at Cavallo a large establishment for the direct purchase and treatment of its own[Pg 136] Turkish leaf. This plant handles about 6 million lbs. of leaf annually. The American smoker of home-made Turkish cigarettes has the advantage of knowing that his leaf is genuine and bought economically.
One American company that does a huge business in cigarettes operates a large facility in Cavallo for the direct purchase and processing of its own[Pg 136] Turkish leaf. This plant processes about 6 million pounds of leaf each year. The American smoker of homemade Turkish cigarettes has the benefit of knowing that their leaf is authentic and purchased at a good price.
The most valued kind of Turkish tobacco is that grown in the Caza of Yenidji on the Vardar River region in Roumelia.
The most prized type of Turkish tobacco is grown in the Caza of Yenidji in the Vardar River area of Roumelia.
The Latakia tobacco grown in the hilly part of Northern Syria is also celebrated as a cigarette tobacco. This tobacco has a low nicotine percentage (less than one per cent) and its peculiar aroma is due to its exposure for nearly 6 months to the smoke of the tree known as Quercus Ilex. Very choice parcels of these tobaccos fetch in the open market from $3 to $5 per lb.; lower grades are bought from 25c per lb. and up.
The Latakia tobacco grown in the hilly areas of Northern Syria is also well-known as a cigarette tobacco. This tobacco has a low nicotine content (less than one percent) and its unique aroma comes from being exposed to the smoke of the Quercus Ilex tree for about six months. High-quality batches of this tobacco sell for $3 to $5 per pound in the open market, while lower grades can be purchased starting at 25 cents per pound.
The best known grades of cigarettes made from genuine Turkish leaf are the La Ferme of Leipzig and St. Petersburg; the Nestor and Melachrino of Egypt; the Monopol of New York; and the Dubec of Richmond. In the Turkish hand-made cigarette there is no flavoring of any kind. In Europe the Turkish cigarettes are usually made by Greeks who are special adepts at this work.
The best known brands of cigarettes made from real Turkish leaf are the La Ferme from Leipzig and St. Petersburg; the Nestor and Melachrino from Egypt; the Monopol from New York; and the Dubec from Richmond. In Turkish hand-rolled cigarettes, there's no flavoring at all. In Europe, Turkish cigarettes are typically made by Greeks who are highly skilled at this craft.
The paper wrappers are imported from France or Austria. The native cigarette[Pg 137] makers as a rule blend their own leaf and cut or shred it by hand. An expert workman can make about 3,000 cigarettes per day.
The paper wrappers come from France or Austria. Local cigarette[Pg 137] makers usually blend their own tobacco and cut or shred it by hand. A skilled worker can make around 3,000 cigarettes a day.
In the United States, Turkish cigarettes are of two kinds, imported and domestic. The imported include those purchased already made from Egypt, England, France, etc. In 1913 the value of cigarettes purchased directly by the U. S. from Egypt was about $25,000 and from England $22,000, other countries less. In 1914 the total cost of imported cigarettes (not including those from Philippine Islands) was $79,554. The value of such trade is, therefore, not large. The Turkish cigarettes made in the States are termed Domestic Turkish, and are usually hand-made, though not by any means exclusively so. It appears to be nothing more than an idiosyncrasy to consider that a hand-made cigarette is better than a machine-made one. As in the case of cigars, other things being equal it would appear that on many considerations, hygienic as well as mechanical, the balance is in favor of the machine. However, many still think there is some peculiar talismanic virtue in a hand-made cigarette and are willing to pay a higher price. There is, of course, a pleasure in making one’s own cigarettes, but when they are bought made the advantage of hand-making is not very apparent.
In the United States, there are two types of Turkish cigarettes: imported and domestic. The imported ones include those bought ready-made from Egypt, England, France, and others. In 1913, the value of cigarettes purchased directly from Egypt was about $25,000 and from England $22,000, with other countries contributing less. In 1914, the total cost of imported cigarettes (excluding those from the Philippine Islands) was $79,554. Therefore, this trade isn’t very significant. The Turkish cigarettes produced in the U.S. are called Domestic Turkish and are usually handmade, although not exclusively. It seems to be more of a personal preference to think that a handmade cigarette is better than a machine-made one. Just as with cigars, when everything else is equal, it appears that for many reasons, including hygiene and mechanical considerations, the advantage lies with machine-made cigarettes. However, many people still believe there’s a unique charm to handmade cigarettes and are willing to pay more for them. Of course, there’s a satisfaction in rolling your own cigarettes, but when you buy them pre-made, the benefits of handmade ones become less clear.
[Pg 138]There are many variants of the Turkish cigarette. Besides the common paper wrapped variety some have fillers of Turkish tobacco with Havana or Virginia leaf wrapper; others have mixed fillers of Turkish, Virginia, Havana or Perique, two or more or all kinds being mixed. Each type of cigarette has its own special votaries. Cigarettes of this variety are not, however, so popular in the United States as in other countries where the cigarette is the most pronounced type smoked.
[Pg 138]There are many types of Turkish cigarettes. Besides the standard paper-wrapped ones, some have a filling of Turkish tobacco with a Havana or Virginia leaf wrapper; others mix Turkish, Virginia, Havana, or Perique tobacco, often combining two or more types. Each type of cigarette has its own fan base. However, these kinds of cigarettes are not as popular in the United States as they are in other countries where cigarettes are the most commonly smoked type.
The American cigarette is generally made of Yellow Virginian tobacco and is popular all the world over. The secret of success in good cigarette making lies in the selection and blending of the leaf so that the proper strength and characteristics may be secured. As a general rule no adulterants of any kind are added to the tobacco except in some of the very cheap kinds in which the leaf is sometimes treated with a glycerine solution in order to give it a sweetish taste. The solution is quite harmless.
The American cigarette is typically made from Yellow Virginia tobacco and is popular worldwide. The key to making a good cigarette lies in selecting and blending the leaves to achieve the right strength and qualities. Generally, no additives are included in the tobacco, except for some very cheap brands that may treat the leaves with a glycerin solution to give them a slightly sweet taste. The solution is completely harmless.
The machinery for the manufacture of cigarettes has been brought to such perfection that it is quite automatic. The only hand work required is the feeding of the tobacco into the hoppers. The cutting, rolling, wrapping, tipping and packing are all done quite mechanically, the cigarettes being turned out all ready[Pg 139] for the smoker. In the large factories the processes are under strict hygienic conditions, which is not usually the case in the small workshops where the hand-made goods are prepared. The various machines used in the manufacturing processes are highly complicated and a detailed description of them would be too technical for these pages.
The machinery for making cigarettes has become so advanced that it's mostly automatic. The only manual work needed is putting the tobacco into the hoppers. The cutting, rolling, wrapping, tipping, and packing are all done mechanically, with the cigarettes being produced fully ready[Pg 139] for smokers. In large factories, the processes follow strict hygiene standards, which is often not the case in small workshops where hand-made products are made. The various machines involved in the manufacturing processes are very complex, and explaining them in detail would be too technical for this text.
The paper used for wrapping cigarettes has frequently been the subject of most unwarranted attacks and the most absurd statements have been made regarding it. Investigation and analysis of the paper used in the very cheapest grades of cigarettes by competent authorities have failed to find anything deleterious to health. The paper used for this purpose is made principally in France. It is of the kind known as rice paper although it has no connection whatever with rice. It is a vegetable substance being made usually from the membranes of the bread fruit tree or else from fine trimmings of flax and hemp. The materials are thoroughly washed and treated with lime and soda before and after pulping. Careful analysis are made to see that nothing is left that might be harmful and the manufacturers use the greatest care and judgment to see that their product is as pure and perfect as possible as it is their interest that it should be so. The paper is [Pg 140]extremely thin and light, very combustible, and gives off very little smoke. These are the only qualities necessary and there is not the least reason to use any harmful ingredients, as the required qualities can be obtained by the ordinary manufacturing processes. Moreover, the best paper can be manufactured and supplied at a very low cost. From France the United States annually imports about $500,000 worth of cigarette paper and from Austria about $120,000 worth.
The paper used for wrapping cigarettes has often faced unfair criticism, and some very strange claims have been made about it. Investigations and analyses by experts into the paper used in the lowest grades of cigarettes have found nothing harmful to health. This paper is mainly produced in France and is referred to as rice paper, even though it has no actual connection to rice. It’s made from vegetable materials, usually from the membranes of the breadfruit tree or fine trimmings of flax and hemp. The materials are thoroughly washed and treated with lime and soda both before and after pulping. Careful analyses are conducted to ensure nothing harmful remains, and manufacturers are very careful and responsible to make sure their product is as pure and perfect as possible, as it’s in their best interest to do so. The paper is [Pg 140] extremely thin and light, highly combustible, and produces very little smoke. These are the only necessary qualities, and there’s no reason to include harmful ingredients, as the required properties can be achieved through standard manufacturing processes. Additionally, high-quality paper can be made and supplied at a very low cost. The United States imports about $500,000 worth of cigarette paper from France and around $120,000 worth from Austria each year.
Most manufactured cigarettes have a protective tip at the mouth end. This not only keeps the cigarette intact but prevents the tobacco from being wetted by the saliva. As already stated, nicotine is soluble in water, and its entrance to the mouth in this form is thus obviated. The tips are made of various substances, cork, straw, goldleaf, cherry wood, etc., in fact any water-proof substance that is harmless, nonadherent and smooth can be used.
Most manufactured cigarettes have a protective tip at the end you smoke from. This not only keeps the cigarette intact but also stops saliva from wetting the tobacco. As mentioned earlier, nicotine dissolves in water, so this helps prevent it from entering the mouth in that form. The tips are made from different materials like cork, straw, gold leaf, cherry wood, and pretty much any waterproof substance that is safe, non-sticky, and smooth can be used.
Cigarettes must according to the law of the U. S. be put up in packages of 5, 8, 10, 15, 20, 50 or 100, and the packages must not contain any lottery or chance ticket nor any indecent picture.
Cigarettes, according to U.S. law, must be sold in packs of 5, 8, 10, 15, 20, 50, or 100, and these packs cannot include any lottery or chance tickets or indecent images.
Much criticism, that is to a large extent groundless, has been directed against the habit of cigarette smoking. It has been shown by[Pg 141] many investigators that when not carried to excess the cigarette is the safest method of using tobacco. The reader is referred to the remarks regarding cigarettes in the chapter respecting the effect of tobacco on the human system; but it may be as well here to quote a recent editorial from one of the leading representative medical journals of the United States, the opinion stated in which should go far towards removing the absurd prejudice against the cigarette.
Much criticism, much of it unfounded, has been aimed at the habit of cigarette smoking. Many researchers have shown that when not done excessively, cigarettes are the safest way to use tobacco. The reader is directed to the comments about cigarettes in the chapter discussing the effects of tobacco on the human body; however, it’s worthwhile to quote a recent editorial from one of the leading medical journals in the United States, as the opinion expressed should help dispel the ridiculous bias against cigarettes.
From the New York Medical Journal of July 25, 1914 (Editorial):
From the New York Medical Journal of July 25, 1914 (Editorial):
“Particularly do the uninformed enjoy an attack on the cigarette; it is cheap; it is small; and its patrons, numerous as they are, yet form an insignificant minority in our immense population. Therefore, the cigarette and its users are fair game for cheap and silly sneers; sneers which are capable, however, of cowing an entire legislature, as in Georgia at this moment. Yet, beyond cavil, it has been proved scientifically that of all methods of using tobacco, cigarette smoking is the least harmful. Some months ago the Laucet undertook a careful laboratory study of the various ways of consuming tobacco, with the result that it was found that the cigarettes, Egyptian, Turkish and American, yielded the least amount of nicotine to the smoke[Pg 142] formed; the cigar came next in point of harmlessness, while the pipe overshadowed the cigar to the extent that from 70 to 90% of nicotine was said to exist in its smoke.
“Especially the uninformed like to attack cigarettes; they’re cheap, small, and although their users are numerous, they still make up a tiny minority of our massive population. So, cigarettes and their users are easy targets for cheap and silly sneers; those sneers can even intimidate an entire legislature, like what’s happening in Georgia right now. However, it has been scientifically proven that out of all the ways to use tobacco, cigarette smoking is the least harmful. A few months ago, the Lancet conducted a thorough laboratory study on the different methods of consuming tobacco, and it found that Egyptian, Turkish, and American cigarettes produced the least amount of nicotine in the smoke[Pg 142]; cigars were next in terms of being less harmful, while pipes contained between 70 to 90% of nicotine in their smoke, making them much worse than cigars.”
“As to the paper of cigarettes the attacks are simply preposterous.
“As for the cigarette paper, the accusations are just ridiculous.
********
********
“Men are well within their rights in forbidding cigarette smoking and other pleasures and distractions to their employes; it is another matter when they seize an opportunity to compound with vices they have a mind to, by damning one they’re not inclined to, especially when the latter affords solace and recreation to millions perfectly capable of judging what is and what is not good for them. In Europe where a good deal of logical thinking still prevails, there is probably not one smoker of distinction in any walk of life who does not include the cigarette in his nicotian armamentarium.”
“Employers have every right to ban cigarette smoking and other distractions for their employees; however, it becomes problematic when they choose to indulge in vices they prefer while condemning those they don’t, especially when the latter provides comfort and enjoyment to millions who are perfectly capable of deciding what is good for them. In Europe, where logical thinking is still common, there’s probably not a single notable smoker in any field who doesn’t have cigarettes as part of their nicotine arsenal.”
(See __A_TAG_PLACEHOLDER_0__)
CHAPTER XV
SNUFF
SNUFF
How made. Qualities. Description of kinds.
How it's made. Characteristics. Description of types.
SNUFF
SNUFF
A century ago snuff taking was the principal form in which tobacco was used. The custom pervaded all classes of society and it was used by both sexes. The habit has to a very large extent died out; and it is rarely now that one sees a snuff box in use. Nevertheless there is still a very large trade in snuff manufacture, and it is used very extensively in many countries. It will surprise many to know that about 24 million lbs. of snuff are manufactured and used annually in the U. S. and that within recent years the percentage of increase in the use of this form of tobacco has been higher than in the case of cigar, cigarette or pipe smoking kinds. The value of the snuff manufactured annually is appraised for revenue purposes at about 6 million dollars.
A hundred years ago, snuff was the main way people used tobacco. This practice was common across all social classes and was popular with both men and women. The habit has largely faded away, and it’s rare to see a snuff box in use today. However, there is still a significant market for snuff production, and it’s widely used in many countries. Many will be surprised to learn that about 24 million pounds of snuff are produced and consumed each year in the U.S., and in recent years, the increase in snuff usage has outpaced that of cigars, cigarettes, and pipe tobacco. The annual value of snuff production is estimated at around 6 million dollars for tax purposes.
The process of the manufacture of snuff or tobacco powder, is essentially based on long and thorough fermentation as all bitter substances, acid and essential oils, as well as a large part of the nicotine, must be removed.
The process of making snuff or tobacco powder primarily relies on a long and thorough fermentation since all the bitter substances, acids, essential oils, and a significant portion of the nicotine need to be eliminated.
Strong, coarse tobacco is suitable for the purpose, the darker types of Virginian and Tennessee tobaccos being used. Strong tobacco does not necessarily contain a high percentage of nicotine as is usually supposed. Strength[Pg 146] has nothing to do with nicotine content; but whatever amount of nicotine the tobacco possesses, at least one-half must be removed by fermentation. As a general rule tobacco leaf which is at least 2 years old is used and this is submitted to a further fermentation process of a special kind for a period varying from 2 to 6 months. When the fermentation process is complete, the tobacco, while still in leaf and unpowdered, is technically known as snuff. There are two principal kinds of snuff and there are many varieties of each kind principally differing in flavor and minor qualities.
Strong, coarse tobacco works well for this purpose, particularly the darker varieties of Virginian and Tennessee tobaccos. Strong tobacco doesn't necessarily mean it has a high nicotine content, despite common belief. Strength[Pg 146] isn't related to how much nicotine is present; however, at least half of the nicotine in the tobacco must be eliminated through fermentation. Generally, tobacco leaves that are at least 2 years old are used and undergo an additional special fermentation process lasting anywhere from 2 to 6 months. Once the fermentation is finished, the tobacco, while still in leaf form and unprocessed, is technically referred to as snuff. There are two main types of snuff, with many varieties of each type that mainly differ in flavor and some minor qualities.
The two kinds of snuff are known as Wet and Dry. These terms are due to the difference in the mode of manufacture.
The two types of snuff are called Wet and Dry. These names come from how they’re made.
In making wet snuff, the tobacco leaves are ground up into grain form before the fermentation takes place. It only becomes snuff when the fermentation is completed.
In making wet snuff, the tobacco leaves are ground into grain form before fermentation occurs. It only becomes snuff once fermentation is finished.
In the dry kind the grinding does not take place until after the fermentation is completed, when the fermented leaves are thoroughly dried.
In the dry type, the grinding doesn’t happen until after the fermentation is finished, when the fermented leaves are completely dried.
The grinding is then done in a muller similar to a mortar and pestle—this operation being conducted by machinery on a large scale. After grinding the snuff is put through a sieving process and is then sent to the seasoning department,[Pg 147] thus occupying from 2 to 6 months or even longer.
The grinding is then done in a muller, similar to a mortar and pestle—this operation is carried out by machinery on a large scale. After grinding, the snuff goes through a sieving process and is then sent to the seasoning department,[Pg 147] which takes about 2 to 6 months or even longer.
Various flavors—attar of roses and such like—are added to give the snuff different scents and flavors.
Different flavors—like rose oil and others—are added to give the snuff various scents and tastes.
The various names under which brands of snuff are put up are survivals of names applied to snuff made by methods no longer in vogue:
The different names that brands of snuff are marketed under are remnants of names used for snuff made by methods that are no longer popular:
Scotch Snuffs are all dry. There are various kinds—strong, plain, sweet, salt, high-toast, etc.
Scotch snuff are all dry. There are different types—strong, plain, sweet, salty, high-toast, etc.
Maccaboy is a semi-wet snuff.
Maccaboy is a moist snuff.
Swedish Snuffs usually contain a large percentage of moisture. The grains are coarse and usually highly flavored. Snuff taking is still extensive among the Swedish people.
Swedish Snus typically contain a high level of moisture. The grains are coarse and usually very flavorful. Using snuff is still quite common among the Swedish people.
Rappee is a snuff made after the French fashion.
Rappee is a type of snuff made in the French style.
REFERENCES (Chapters IX to XV)
REFERENCES (Chapters 9 to 15)
U. S. Dept. of Commerce. Bureau of the Census. Report of 13th Census, 1910. (Vol. on Manufacturers, 1912-1913.)
U.S. Department of Commerce. Census Bureau. Report of 13th Census, 1910. (Vol. on Manufacturers, 1912-1913.)
U. S. Dept. of Commerce and Labor. Bureau of Corporations. Report of the Commissioner of Corporations on the Tobacco Industry. Vol. I, 1909, Continued.[Pg 148]
U.S. Department of Commerce and Labor. Bureau of Corporations. Report of the Commissioner of Corporations on the Tobacco Industry. Vol. I, 1909, Continued.[Pg 148]
Ivens, W. M. Brief and argument in certain appeals from the Circuit Court of U. S. for Southern District of New York. (Tobacco Monopoly, 1911.)
Ivens, W.M. Brief and argument in certain appeals from the Circuit Court of U.S. for the Southern District of New York. (Tobacco Monopoly, 1911.)
Hoagland, I. G. The Tobacco Industry. In Quarterly of the National Fire Protection Assn., 1907. Vol. I, Nos. 2 and 4.
Hoagland, I.G. The Tobacco Industry. In Quarterly of the National Fire Protection Assn., 1907. Vol. I, Nos. 2 and 4.
Jacobstein, M. The Tobacco Industry in the U. S. New York, 1907.
Jacobstein, M. The Tobacco Industry in the U.S. New York, 1907.
CHAPTER XVI
SMOKING PIPES
Smoking Pipes
History. Materials used in making. Meerschaum. Briar root.
Amber. Special kinds of pipes. Care of pipes.
History. Materials used in manufacturing. Meerschaum. Briar root.
Amber. Unique types of pipes. Pipe maintenance.
PIPES
Tubes
The history of tobacco smoking pipes began with the discovery of tobacco by the Spaniards. How long before that event they were used is not known, but that they were used by the Indians and others for a long period is quite clear from many items of evidence. The reader who desires information concerning pre-Columbian tobacco pipes is referred to the Pipes and smoking customs of the American Aborigines, by J. D. McQuire, based on the material in the U. S. National Museum 1889, and other similar archaological works.
The history of tobacco smoking pipes started with the Spaniards discovering tobacco. It's unclear how long pipes were used before that, but it's evident from various sources that they had been used by Native Americans and others for a long time. For readers interested in information about pre-Columbian tobacco pipes, check out Pipes and smoking customs of the American Aborigines by J. D. McQuire, which is based on materials from the U.S. National Museum 1889, along with other similar archaeological studies.
The first mention of pipes in literature appears to have been made by Oviedo in 1535 in his work La historia general de las Indias (Part 1). In this there is a small wood cut which is the oldest known picture of a pipe. This pipe was shaped like a Y—the two ends of which were placed in the nose and the tobacco leaves in the stem. The smoke was inhaled. Oviedo says that this pipe was called “Tabaca” from which the name tobacco was probably derived. Admiral John Hawkins was the first to mention the pipe in English literature in 1564.
The first mention of pipes in literature seems to be by Oviedo in 1535 in his work La historia general de las Indias (Part 1). In this work, there's a small woodcut that is the oldest known image of a pipe. This pipe was shaped like a Y—the two ends were placed in the nose and the tobacco leaves went in the stem. The smoke was inhaled. Oviedo mentions that this pipe was called “Tabaca,” which is likely where the name tobacco originated. Admiral John Hawkins was the first to mention the pipe in English literature in 1564.
Raleigh’s famous smoking feat did not take place until 1586.
Raleigh's famous smoking stunt didn't happen until 1586.
[Pg 152]The Indian pipes were principally of clay and this material was used in England for the first pipes made there and continued in sole use for about 250 years. From England it came to New England, with the first colonists. The Spaniards of South America did not generally use pipes. Meerschaum as a pipe making material was not known in Europe till 1723. It came about in this way: There was then in Pesth (Austria-Hungary) an honest old shoemaker, Karl Kowates, who, when he was not making or mending shoes, made pipes. Count Andrassy was one of his pipe patrons. The Count while on a mission to Turkey in 1723 was presented with a lump of meerschaum. The lightness and porosity of the material suggested to him that it would be a very suitable substance for a pipe bowl and on his return to Pesth he handed the lump to Karl to make a pipe of it. It seems Karl made two, one for the Count and one for himself. But Karl did more than that. The nature of his shoe work made his hands waxy and he noticed that wherever the pipe was waxed by his hands it turned into spots of clear brown color. He thus discovered the coloring qualities of meerschaum. Karl’s first pipe is still preserved (it is said) at Pesth.
[Pg 152]Indian pipes were mostly made of clay, which was the material used in England for the first pipes made there and remained the only choice for about 250 years. This tradition was carried over to New England by the first colonists. South American Spaniards typically didn't use pipes. Meerschaum as a pipe-making material wasn't known in Europe until 1723. Here's how it happened: In Pesth (Austria-Hungary), there was a good-hearted old shoemaker named Karl Kowates, who also made pipes when he wasn’t busy with shoes. One of his pipe customers was Count Andrassy. During a trip to Turkey in 1723, the Count was given a chunk of meerschaum. The lightweight and porous nature of the material made him think it would be perfect for a pipe bowl, so when he returned to Pesth, he gave the lump to Karl to create a pipe. It seems Karl ended up making two—one for the Count and one for himself. But Karl did more than that. His shoe work left his hands waxy, and he noticed that wherever he waxed the pipe, it turned a clear brown color. This led him to discover the coloring properties of meerschaum. It's said that Karl’s first pipe is still preserved in Pesth.
The new material became very popular and it spread from Austria all over pipe-smoking Europe.
The new material became really popular and spread from Austria throughout all of pipe-smoking Europe.
[Pg 153]Wooden pipes do not appear to have come into use till the early part of the 19th Century.
[Pg 153]Wooden pipes don’t seem to have been used until the early 19th century.
There is a good deal of interesting lore concerning early clay pipes into which it is not proposed to enter here. It will be interesting, however, to note that in William Penn’s land transactions with the Indians, 300 clay pipes (probably English make) were one of the articles of barter.
There’s a lot of intriguing history about early clay pipes that we won’t explore here. However, it’s worth noting that in William Penn’s dealings with the Indigenous people, 300 clay pipes (likely made in England) were part of the trade items.
The earliest clay pipe stems were about 9 inches long. The long stem pipes with glazed ends were introduced about the year 1700 and were known as “Aldermen.” The pipe known as the “Churchwarden” with a very long, thin, curved stem which was typical of a leisurable smoke did not come into use till about 1819. In those days smokers did not commonly carry pipes around with them. When a man arrived at an inn or tavern he ordered a pipe and tobacco, just as he ordered his dinner. The “Cutty” or “Aberdeen” with the short stem was, however, used by those who needed a pocket pipe.
The earliest clay pipe stems were about 9 inches long. Long-stemmed pipes with glazed ends appeared around the year 1700 and were called "Aldermen." The pipe known as the "Churchwarden," featuring a very long, thin, curved stem typical for a leisurely smoke, didn’t become popular until around 1819. Back then, smokers usually didn’t carry pipes with them. When a man arrived at an inn or tavern, he would order a pipe and tobacco just like he would order his meal. The "Cutty" or "Aberdeen," which had a short stem, was used by those who needed a pipe they could fit in their pocket.
It is very surprising how little changes the pipe has undergone. The original pipe was a simple bowl and stem, and the best pipe today is a plain bowl and stem; for although hundreds of devices and all kinds of patents have been tried, the true smoker prefers the simple[Pg 154] plain pipe which offers no obstacle to the clear drawing of the smoke from the burning tobacco.
It’s quite surprising how little the pipe has changed. The original pipe was just a simple bowl and stem, and the best pipe today is still a plain bowl and stem. Even though hundreds of gadgets and all kinds of patents have been attempted, the true smoker still prefers the simple[Pg 154] plain pipe that allows for an unobstructed draw of smoke from the burning tobacco.
The materials used for pipes differ in various countries. Pipes are made of clay, porcelain, wood, metal, glass, ivory, horn, cane, bamboo, stone, etc. There is no known material which in the opinion of smokers equals genuine meerschaum as a material for pipes. This is on account of its lightness, its coolness, its absorbing qualities and its capabilities of high polish and assumption of a beautiful color when used from soaking the essential oils of the tobacco. Its friability, however, renders it more suitable for use as a home pipe than for a work-a-day pipe.
The materials used for pipes vary in different countries. Pipes are made from clay, porcelain, wood, metal, glass, ivory, horn, cane, bamboo, stone, and more. There is no known material that, in the view of smokers, matches genuine meerschaum as a pipe material. This is due to its lightness, coolness, absorbency, and ability to be polished to a high shine, taking on a beautiful color from the essential oils in the tobacco. However, its fragility makes it more suitable for a home pipe rather than an everyday pipe.
For the work-a-day and knock-about pipe the wooden pipe with short stem is without a rival. The qualities which are essential for a wooden pipe are many and it is difficult if not impossible to get any material that will answer all of them. The wood for such a pipe must be hard and practically incombustible, yet light. It must be sapless and inodorous so that when heated the fragrance of the tobacco would not be mingled with that of the wood and be lost. In addition it must be a good absorber, cool and have beauty of grain and be susceptible of a high polish and must not be brittle. The wood known as briar root possesses these qualities[Pg 155] to a greater extent than any other wood known. It will be described in more detail later.
For everyday use, the wooden pipe with a short stem is unmatched. The characteristics essential for a wooden pipe are numerous, and finding a material that meets all of them is challenging, if not impossible. The wood for such a pipe needs to be hard and almost non-combustible, yet lightweight. It should be free of sap and odorless so that when heated, the aroma of the tobacco isn’t mixed with the wood’s scent and lost. Additionally, it must effectively absorb, remain cool, have a beautiful grain, be capable of a high polish, and not be brittle. The wood known as briar root has these qualities[Pg 155] more than any other type of wood. More details will be provided later.
Myall, a native Austrian wood of a very dark color, hard and of good grain has many excellent qualities for pipes, but is brittle.
Myall, a native Austrian wood that is very dark, hard, and has a good grain, has many great qualities for making pipes, but it's also quite brittle.
Maple, juniper and cherry and several other woods are used to a limited extent.
Maple, juniper, cherry, and a few other types of wood are used to some extent.
Meerschaum
Meerschaum
Meerschaum is a light, porous, clayey substance composed of magnesium, oxygen and silicon. It is chemically described as a hydrated silicate of magnesia and its chemical formula is MgSi2O4 + 2H2O.
Meerschaum is a lightweight, porous, clay-like material made up of magnesium, oxygen, and silicon. Chemically, it's classified as a hydrated silicate of magnesia, and its chemical formula is MgSi2O4 + 2H2O.
The word meerschaum is composed of two German words, i. e., Meer, the sea; and Schaum, foam, and literally means “the foam of the sea.” A popular belief being that the substance was petrified sea foam.
The word meerschaum comes from two German words: Meer, meaning the sea, and Schaum, meaning foam. It literally translates to “the foam of the sea.” There is a common belief that this substance is petrified sea foam.
The circumstances under which meerschaum came to be used for smoking pipes have already been detailed. Meerschaum occurs as a mineral more or less scattered all over the world, but the largest quantities and probably the best qualities occur in Asia Minor. In the United States, the mineral is found in South Carolina. Other mines occur in Spain, Greece and Morocco. The principal mines in Asia Minor are situated about 250 miles southwest of [Pg 156]Constantinople, on the plains of Eskishahr. Meerschaum has been in use for sundry purposes in the Orient for many centuries and the mines of Asia Minor have been worked for at least 1,000 years. The result is that they are now approaching exhaustion. The area in which the mineral occurs principally is small, about six square miles, and in this area many thousands of pits are worked. The soil is alluvial and in these deposits the meerschaum is found in soft lumps and nodules having no definite or regular shape. It also occurs in veins among the Serpentine rocks and marls. Although it is soft when taken out of the ground it rapidly hardens when exposed to the air. It is roughly shaped and cleaned at the mines and from thence sent to the dealers who further prepare it by waxing and polishing and put it on the market in the conditions in which it reaches the pipe makers. The principal European depots for meerschaum are Constantinople and Vienna. It is usually packed in boxes containing about 50 lbs. each and sells for from 50c to $4.00 per lb.
The conditions under which meerschaum started being used for smoking pipes have already been explained. Meerschaum is a mineral found scattered across the globe, but the largest and likely the highest-quality deposits are in Asia Minor. In the United States, the mineral is located in South Carolina. Other mines can be found in Spain, Greece, and Morocco. The main mines in Asia Minor are located about 250 miles southwest of [Pg 156]Constantinople, on the plains of Eskishahr. Meerschaum has been used for various purposes in the East for many centuries, and the mines in Asia Minor have been operating for at least 1,000 years. As a result, they are now nearing depletion. The area where the mineral is primarily found is small, roughly six square miles, and within this area, many thousands of pits are in operation. The soil is alluvial, and in these deposits, meerschaum is found in soft lumps and nodules with no specific or regular shape. It also appears in veins among the Serpentine rocks and marls. Although it is soft when extracted from the ground, it hardens quickly when exposed to air. It is roughly shaped and cleaned at the mines, then sent to dealers who further prepare it by waxing and polishing before putting it on the market for pipe makers. The main European hubs for meerschaum are Constantinople and Vienna. It is typically packed in boxes of about 50 lbs. each and sells for between 50 cents and $4.00 per lb.
The lumps on reaching the manufacturers are first cut with a band saw into suitable sized blocks according to the size and shape of the pipes desired. These blocks are then thoroughly soaked in water until they are thoroughly saturated. The soaking renders the material[Pg 157] soft and soapy and gives it the consistency of cheese, so that it is then easily shaped into the desired form which the pipe is to take. It is then dried and hardened again and on completion the bowl is hollowed out and the stem drilled. If the pipe is a plain one without carving it is finished on a lathe and filed ready for polishing. It is also threaded for the mouthpiece. The pipe is then sent to the drying room for such time as is necessary to expel all moisture. The final treatment for the smoothing of the surface is done by fine sandpaper and other special substances, then immersing in melted white beeswax for three to five minutes and finally the giving of a high polish with precipitated chalk, cotton and flannel being the usual rubbing materials used.
The lumps that arrive at the manufacturers are first cut with a band saw into appropriately sized blocks based on the desired size and shape of the pipes. These blocks are then thoroughly soaked in water until they’re fully saturated. The soaking makes the material[Pg 157] soft and soapy, giving it a cheese-like consistency, so it can easily be shaped into the desired form for the pipe. After that, it’s dried and hardened again, and once completed, the bowl is hollowed out and the stem is drilled. If the pipe is plain and uncarved, it’s finished on a lathe and filed to prepare it for polishing. It’s also threaded for the mouthpiece. The pipe is then sent to the drying room for as long as needed to remove all moisture. The final treatment for smoothing the surface is done with fine sandpaper and other special materials, followed by immersion in melted white beeswax for three to five minutes, and lastly, a high polish is achieved using precipitated chalk, with cotton and flannel as the typical rubbing materials.
Meerschaum by its nature is particularly adapted for carving. The hand carving of such pipes requires artistic and dexterous craftsmen, who are experts in this particular class of work.
Meerschaum is especially suited for carving. Hand carving these pipes requires skilled and talented artisans who are experts in this specific type of craft.
There are various imitations of meerschaum. One is made from burnt gypsum soaked with lime in a solution of gum arabic. This forms a hard, creamy plaster and is capable of receiving a highly smooth and polished marble-like surface.
There are different copies of meerschaum. One is made from burnt gypsum soaked in lime mixed with a solution of gum arabic. This creates a hard, creamy plaster that can achieve a very smooth and polished surface similar to marble.
Another form of imitation is made of a hardened plaster of Paris highly polished and tinted[Pg 158] in a solution of gamboge and dragon’s blood, being afterwards treated with paraffin or stearic acid. All cheaper grades of meerschaum pipes, holders, etc., are made of this or similar compounds and it is very hard for the average smoker to distinguish them as the ordinary tests will not suffice. The absorption and coloring qualities are about the same. Such imitations cost about half as much as the genuine article or even sometimes less.
Another type of imitation is made from a hardened plaster of Paris that’s highly polished and colored[Pg 158] in a solution of gamboge and dragon’s blood, and then treated with paraffin or stearic acid. All the cheaper grades of meerschaum pipes, holders, and similar items are made from this or comparable materials, and it’s really hard for the average smoker to tell them apart since regular tests won’t work. Their absorption and coloring properties are pretty much the same. These imitations cost about half as much as the real thing, or sometimes even less.
It should be added that the chips and dust resulting from the working of the genuine meerschaum are bonded together with a solution and moulded and this is also sold as meerschaum.
It should be noted that the chips and dust created from working with genuine meerschaum are mixed with a solution and molded, and this is also sold as meerschaum.
The number of genuine meerschaum pipes annually manufactured is probably much less than one-half a million, while there are probably three or four times as many imitations.
The number of genuine meerschaum pipes made each year is probably much less than half a million, while there are likely three to four times as many imitations.
Briar Root
Briar Root
As we have seen briar root is found to be the most suitable wood for pipe smoking. The word briar is not named from wild briar. The word is a corruption of the French name La Bruyère, meaning the heather shrub of that name which grows along the Mediterranean coast of France, Spain and neighboring countries. It is the root of this shrub which is the substance used. The shrub is especially [Pg 159]cultured for the purpose of pipe making; but the area in which the best briar root grows is very limited. It takes considerable time and the result is that the supply of the most suitable wood is far below the demand. The cultivation of the briar root is a simple matter. It consists merely in pruning the growth as much as possible so as to encourage and strengthen the roots.
As we've established, briar root is the best wood for pipe smoking. The term briar doesn't come from wild briar. It's actually a mispronunciation of the French name La Bruyère, which refers to the heather shrub that grows along the Mediterranean coasts of France, Spain, and nearby countries. The material used is the root of this shrub. The shrub is specifically [Pg 159]grown for pipe making; however, the region where the finest briar root is found is very limited. It takes a significant amount of time, resulting in a supply of the best wood that's far below the demand. Cultivating briar root is quite simple. It mainly involves pruning the growth as much as possible to encourage and strengthen the roots.
The very best qualities of briar root come from Corsica and the neighborhood of Leghorn. It is very finely grained, hard and tough, does not char and heats slowly.
The best qualities of briar root come from Corsica and the area around Leghorn. It has a fine grain, is hard and durable, doesn’t burn easily, and heats up slowly.
When full grown and ready for the market the wood is rough sawn into blocks, varying in size from 3 inches square up, according to the market sizes required, and allowed to season. When fully seasoned the blocks are packed in boxes each containing from 200 to 300 of these blocks. They are then sent to the dealers or direct to the pipe factories as the case may be.
When fully grown and ready for market, the wood is roughly cut into blocks, which can range in size from 3 inches square and up, based on the required market sizes, and is left to dry. Once fully dried, the blocks are packed in boxes, each holding between 200 and 300 blocks. They are then sent to dealers or directly to the pipe factories, depending on the situation.
In the factory the blocks are sorted and then undergo a sweating process in steam vats for ten to twelve hours. This steaming gives the wood the familiar brown-yellow tint of the natural briar root uncolored. After sweating the blocks are sent to the drying room as all traces of moisture must be removed. This usually takes several months. For pipe making the workman selects his block and roughly trims[Pg 160] it to size. It is then placed in the frazing machine. This usually has three cutters revolving at very high speed, making several thousand revolutions per minute. The center cutter shapes out the block and the outer knives cut away the wood on the outside so as to form the block roughly into the shape of a pipe bowl and stem. This is then placed in a special lathe for cutting irregular forms. It is usual to fit in it a metal pattern of the particular shape chosen for the pipe. A circular cutting tool is set in motion and the briar block, which turns with the metal pattern, is mechanically cut to the exact shape of the pattern. After cutting, the pipe passes to the sandpapering machines where both inside and outside are thoroughly treated, and it gets a first polishing or smoothing on a pumice stone wheel. The next process is the boring of the stem which is done in a drilling machine by a steel wire having a cutting top rapidly turned by a lathe. The thread on the end of the stem for the mouthpiece is formed by a special machine. The pipe is then ready for polishers and finishers. It is first sandpapered four times, twice with rough and twice with fine on revolving wheels. Unless the wood is to be left its natural color, it is dropped into a vat of stain until it acquires the color desired. After drying it is ready for “buffing.” A “buff”[Pg 161] is a wheel made of many layers of cloth, leather, etc., which revolves very rapidly. For pipe buffing these buffs are usually Tripoli buff, sheepskin buff, muslin and cotton flannel buff. The Tripoli takes off any sediment held by the edges of the grain. The sheepskin buff burns the color fast into the wood. The muslin and cotton bring out the grain and gives the wood its final delicate lustre and finish, which are done when the stem and mountings have been put on. The pipes are then ready for final stamping with name and packing. The process is much the same with all other hard woods. Pipe factories are found in most countries. French briar pipes are justly celebrated, but the American pipes are better made.
In the factory, the blocks are sorted and then undergo a sweating process in steam vats for ten to twelve hours. This steaming gives the wood its familiar brown-yellow tint, similar to the natural color of uncolored briar root. After sweating, the blocks are moved to the drying room to remove all traces of moisture, which usually takes several months. For pipe making, the worker selects a block and roughly trims[Pg 160] it to size. It is then placed in a shaping machine that typically has three cutters spinning at very high speeds, making several thousand revolutions per minute. The center cutter shapes the block while the outer blades cut away the wood on the outside to roughly form it into the shape of a pipe bowl and stem. This is then placed in a special lathe for cutting irregular shapes. It’s common to fit it with a metal pattern of the specific shape chosen for the pipe. A circular cutting tool is activated, and the briar block, which rotates with the metal pattern, is mechanically cut to match the exact shape of the pattern. After cutting, the pipe moves to the sandpapering machines where both the inside and outside are thoroughly treated, and it receives an initial polishing on a pumice stone wheel. Next, the stem is bored using a drilling machine with a steel wire that has a cutting tip, which is rapidly rotated by a lathe. The threading on the end of the stem for the mouthpiece is created by a special machine. After that, the pipe is ready for polishers and finishers. It is sandpapered four times—twice with rough and twice with fine sandpaper on revolving wheels. Unless the wood is to remain its natural color, it is placed in a vat of stain until it reaches the desired color. After drying, it is ready for “buffing.” A “buff”[Pg 161] is a wheel made of multiple layers of cloth, leather, etc., that spins rapidly. For pipe buffing, these buffs usually include Tripoli buff, sheepskin buff, muslin, and cotton flannel buff. The Tripoli removes any sediment stuck in the grain. The sheepskin buff fixes the color into the wood. The muslin and cotton enhance the grain and give the wood its final delicate shine and finish, which are completed once the stem and fittings have been added. The pipes are then ready for final stamping with the name and packaging. The process is quite similar for other hardwoods. Pipe factories can be found in most countries. French briar pipes are well-known, but American pipes are made to a higher standard.
Within recent years calabash has come into vogue to a large extent as a pipe making material. The calabash is a South African squash and has a special softness of flavor. The curved stem end of the calabash is used, being lined with plaster of Paris, and quite a large trade has sprung up in South Africa in growing calabash for the pipe trade, the principal point being Cape Town.
In recent years, calabash has become quite popular as a material for making pipes. The calabash is a type of squash from South Africa and has a unique soft flavor. The curved stem end of the calabash is used, lined with plaster of Paris, and a significant trade has developed in South Africa around growing calabash for the pipe industry, primarily centered in Cape Town.
The Pipe Stem
The Pipe Stem
It is very important that suitable material be selected for the mouthpiece of the pipe. In fact[Pg 162] from many points of view the mouthpiece is the most important part of the pipe for the smoker, because damage to the lips must be particularly avoided, and a defective, rough, or badly made mouthpiece is apt to cause damage. There are three very important qualities which the material must have: (1) It must be hard enough to resist indentation from the teeth and yet not feel gritty. (2) It must be capable of receiving a perfectly smooth surface and of retaining it under the action of saliva. (3) It must not be a rapid heater so that it will not burn the lips, or crack or splinter under action of heat. Other very desirable qualities are toughness, beauty of appearance and freedom from taste or odor under all circumstances of use.
It's really important to choose the right material for the mouthpiece of the pipe. In fact[Pg 162], from many perspectives, the mouthpiece is the most crucial part of the pipe for the smoker, because avoiding damage to the lips is key, and a faulty, rough, or poorly made mouthpiece can definitely cause harm. There are three essential qualities the material must have: (1) It should be hard enough to withstand pressure from the teeth without feeling gritty. (2) It needs to allow for a perfectly smooth surface and keep that smoothness even with saliva exposure. (3) It shouldn't heat up quickly, so it won't burn the lips or crack or splinter when exposed to heat. Other desirable qualities include durability, aesthetic appeal, and being free from taste or odor in all situations of use.
Amber has a unique place in fulfilling these conditions. Amber is a fossil gum or resin, the juice of pine trees, which in course of time has become petrified like coal.
Amber plays a special role in meeting these criteria. Amber is fossilized gum or resin, the sap of pine trees, which has gradually turned into a solid like coal over time.
Amber is found is various parts of the world, but is more plentifully found along the sandy shores of East Prussia bordering on the Baltic Sea. This area was in time long past the site of pine forests. The amber is found very often to occur with lignite or brown coal. It is dug out of the cliffs or mined like coal out of the ground. Sometimes it is washed in from the[Pg 163] sea. In size it varies from the size of a pea to lumps as large as an orange. When first dug up it is usually of a pale yellow color, but this becomes darker on exposure. The manufacture of commercial amber is a government monopoly in Prussia. The pieces are all melted down at a temperature of about 550° F., and then after purification it is cast into slabs about ⅞ inch to 1⅝ inches thick and four inches to eight inches long, in which form it is sold to dealers. There are two qualities, opaque and transparent, the opaque being the tougher. The cost varies considerably, the inferior kinds being sold for $2.00 per pound, and the finest specimens cost up to $60.00 per pound.
Amber is found in various parts of the world, but is more commonly found along the sandy shores of East Prussia by the Baltic Sea. This area was once home to pine forests. Amber often occurs alongside lignite or brown coal. It is either dug out from the cliffs or mined from the ground like coal. Sometimes it washes in from the[Pg 163] sea. The size ranges from that of a pea to lumps as large as an orange. When first extracted, it usually has a pale yellow color, but it darkens when exposed. The production of commercial amber is a government monopoly in Prussia. The pieces are melted down at about 550°F, and after purification, they are shaped into slabs that are about ⅞ inch to 1⅝ inches thick and four inches to eight inches long, which are then sold to dealers. There are two qualities: opaque and transparent, with the opaque being tougher. Prices vary significantly, with lower-quality types selling for $2.00 per pound, while the finest specimens can cost up to $60.00 per pound.
By far the largest quantity of amber used for ordinary pipes is imitation amber. The manufacture of this is a trade secret. It is so good and fulfills its purpose so well that only experts can distinguish it from genuine amber. There are many substitutes for amber.
By far the largest amount of amber used for regular pipes is fake amber. The process of making it is a trade secret. It's so high-quality and serves its purpose so well that only experts can tell it apart from real amber. There are many alternatives to amber.
Good vulcanite, except for the matter of appearance is little inferior to amber as mouthpiece material. Cut vulcanite is cool and smooth, but moulded vulcanite is liable to be rough to the lips and should be avoided. Vulcanite mouthpieces are usually sold already finished direct to the pipe makers.
Good vulcanite, aside from how it looks, is almost as good as amber for mouthpieces. Cut vulcanite feels cool and smooth, but molded vulcanite can be rough on the lips and should be avoided. Vulcanite mouthpieces are typically sold already finished directly to the pipe makers.
[Pg 164]Except for the matter of brittleness unglazed clay is a most excellent pipe stem. Clay is usually cool and very absorbent of the acrid oils occurring in the distillation of tobacco. When the end of a clay stem is protected by a rubber band, it forms a very good mouthpiece. Bone and other materials are also used as mouthpieces. Ebonite is used, but is objectionable because it spoils the flavor of the tobacco. Celluloid is a dangerous substance and should not be used as a pipe stem.
[Pg 164]Aside from being brittle, unglazed clay is an excellent material for pipe stems. Clay tends to stay cool and absorbs the harsh oils produced when tobacco is distilled. When the end of a clay stem is wrapped with a rubber band, it makes a really good mouthpiece. Bone and other materials can also serve as mouthpieces. Ebonite is used, but it's not great because it can ruin the flavor of the tobacco. Celluloid is considered hazardous and should not be used as a pipe stem.
The smoker should avoid biting the mouthpiece as it roughens it. It is far better to discard a mouthpiece when it becomes indented, rough or worn in any way. A damaged mouthpiece should on no account be used when the lips are chapped or lacerated because the irritation may, if continued, lead to ulceration and tobacco juice is not beneficial to skin lesions.
The smoker should avoid biting the mouthpiece as it makes it rough. It's much better to replace a mouthpiece when it becomes indented, rough, or worn in any way. A damaged mouthpiece should never be used when the lips are chapped or cut because the irritation could lead to ulceration, and tobacco juice is not good for skin injuries.
Special Pipes
Special Pipes
German pipes are, as might be expected, the most correct in scientific principle. The pipe has two bowls the upper of which is for the tobacco. This fits into a socket which allows the oils and aqueous solutions due to the distillation to pass into the lower bowl, very little getting into the stem. The bowls are usually of porcelain and the long curved stem is of wood mostly cherry.
German pipes are, as you might expect, the most accurate in scientific principle. The pipe has two bowls, the upper one is for the tobacco. This fits into a socket that allows the oils and water solutions from the distillation to flow into the lower bowl, with very little getting into the stem. The bowls are usually made of porcelain, and the long curved stem is mostly made of cherry wood.
[Pg 165]The Dutch pipe is similar to the German except that the stem is long and straight which allows the bowl to rest on the ground. The German pipe is usually held in the hand by the lower bowl. In Turkey and Oriental countries the water pipe is used. This form of pipe originated in Persia. The pipe consists of a receptacle for the tobacco, which has a perforated bottom. This holder fits into a cup from which a hollow tube leads into a jar containing water. The tube passes through the stopper of the jar and descends almost to the bottom of the water. Another tube, the inhaling tube, also passes through the stopper of the jar, but does not reach to the surface of the water. On drawing through the inhaler a vacuum is created in the air space above the surface of the water in the jar which induces suction through the other tube below the water level. The smoke therefore bubbles through the water and is cooled before it reaches the mouth of the smoker. It, however, requires a considerable amount of effort to draw the smoke through.
[Pg 165]The Dutch pipe is like the German one, but it has a long, straight stem that allows the bowl to rest on the ground. The German pipe is usually held in the hand by the lower bowl. In Turkey and other Middle Eastern countries, people use a water pipe. This type of pipe originated in Persia. The pipe has a container for the tobacco, which has a perforated bottom. This holder fits into a cup, and a hollow tube leads into a jar filled with water. The tube goes through the jar's stopper and almost reaches the bottom of the water. Another tube, called the inhaling tube, also goes through the stopper but doesn't touch the water's surface. When drawing through the inhaling tube, a vacuum forms in the air space above the water's surface, creating suction through the other tube below the water level. As a result, the smoke bubbles through the water and cools down before reaching the smoker's mouth. However, it requires a fair amount of effort to draw the smoke through.
Water pipes are used extensively among the better classes of the East. Some of them are very gorgeous affairs, the bowls being of the richest crystal and the fittings gold or silver set with gems. Sometimes they have several smoking tubes so as to accommodate more than one[Pg 166] smoker. The water pipe used by the Shah of Persia is said to be worth $400,000.00.
Water pipes are widely used among the upper classes in the East. Some of them are exceptionally beautiful, with bowls made of the finest crystal and fittings in gold or silver adorned with gems. Occasionally, they come with multiple smoking tubes to serve more than one smoker. The water pipe used by the Shah of Persia is rumored to be worth $400,000.00.
In Turkey the water pipe is known by the name of Hookak. In Egypt it is called Nargeeleh (or Narghile) because the water vessel is usually a cocoa nut for which the Arabic name is Na’rghee’leh. The Hookak usually stands on the floor and is ponderous, with many smoking tubes. The Nargeeleh is a hand pipe.
In Turkey, the water pipe is called Hookah. In Egypt, it’s known as Nargileh (or Narghile) because the water container is often a coconut, which in Arabic is called Na’rghee’leh. The Hookah usually sits on the floor and is heavy, with multiple smoking tubes. The Nargileh is a handheld pipe.
In Eastern countries, however, besides the water pipe the ordinary clay bowl pipe is used to a very large extent, being fitted with a wooden stem from 3 to 5 feet in length. All these pipes are essentially home pipes, as it is not habitual with the Eastern people to smoke except when seated.
In Eastern countries, though, in addition to the water pipe, the regular clay bowl pipe is widely used, typically equipped with a wooden stem that ranges from 3 to 5 feet long. All these pipes are primarily used at home, as it's not common for Eastern people to smoke except when they are seated.
In China both sexes commonly smoke pipes—a water pipe made of brass is usually smoked by the richer classes. The poorer classes use a clay pipe with a bamboo stem.
In China, both men and women commonly smoke pipes—a water pipe made of brass is typically used by the wealthier classes. The poorer classes use a clay pipe with a bamboo stem.
The principal importation into the United States of foreign made pipes and smokers’ articles is from Austria, England and Germany. The latest government statistics show that from England $278,000, from Austria about $280,000, and from Germany about $139,000 worth of such goods are annually imported. These are principally pipes. Cigarette paper, briar root, etc., are not included in these figures.[Pg 167] The total importation value in 1912 (exclusive of duty) from Europe was $1,478,000.
The main import of foreign-made pipes and smoking products into the United States comes from Austria, England, and Germany. The latest government statistics indicate that we import about $278,000 worth of goods from England, around $280,000 from Austria, and about $139,000 from Germany each year. These figures mainly reflect the import of pipes. Cigarette paper, briar root, and similar items are not included in these amounts.[Pg 167] The total value of imports from Europe in 1912 (not including duties) was $1,478,000.
The Care of Pipes
Pipe Care
An experienced smoker lays down the following rules for the care of pipes. The rules apply whether a man uses one or half a dozen pipes:
An experienced smoker shares these guidelines for taking care of pipes. These rules apply whether someone uses one pipe or several.
(1) When a pipe is used for the first time wipe out the bowl with a cloth. Then thoroughly wet or dampen it. Before the moisture evaporates fill the pipe. Light evenly and be careful not to burn the rim with the lighted match. The tobacco being damp next the wood will not redden there, hence the wood will not char but a sooty film will form.
(1) When you use a pipe for the first time, wipe the bowl with a cloth. Then, make sure to wet or dampen it thoroughly. Before the moisture dries up, fill the pipe. Light it evenly and be careful not to scorch the rim with the lit match. The damp tobacco next to the wood won't heat up, so the wood won't get charred, but a sooty film will form.
(2) Ashes should be allowed to remain in the pipe till thoroughly cooled. Then emptied. The object of this is to allow the liquid residue to soak into the pores of the new wood.
(2) Ashes should be left in the pipe until they are completely cool. Then they should be emptied. The purpose of this is to let the liquid residue soak into the pores of the new wood.
(3) Do not scrape the inner surface of the bowl. The thin coating of carbon (the “cake”) which is formed on it is a nonconductor of heat and prevents the wood from overheating or cracking. It keeps the pipe cool and is a good absorber.
(3) Don't scrape the inside of the bowl. The thin layer of carbon (the “cake”) that builds up on it is a poor heat conductor and stops the wood from getting too hot or cracking. It helps keep the pipe cool and is a great absorber.
(4) After half a dozen smokes the rule of removing the ashes should be reversed. They should be removed promptly after smoking. Blow through the mouthpiece after smoking.[Pg 168] By this time the inner surface of bowl is sufficiently soaked and coated and continuation makes it acrid and sodden.
(4) After smoking about six times, the rule about getting rid of the ashes should change. They should be cleared out right after smoking. Blow through the mouthpiece after you're done.[Pg 168] At this point, the inside of the bowl is well-soaked and coated, and continuing to smoke without cleaning makes it harsh and damp.
(5) Always allow your pipe to cool and dry before resmoking. Use pipe cleaners and pipe spoon for cleaning. When the “cake” becomes too thick part of it may be removed but always leave a layer next the wood. Be careful not to scrape the surface of the bowl.
(5) Always let your pipe cool and dry before smoking it again. Use pipe cleaners and a pipe spoon for cleaning. If the “cake” gets too thick, you can remove some of it, but always leave a layer next to the wood. Be careful not to scrape the surface of the bowl.
(6) A pipe should not be used continuously for more than a few weeks or a month. It should then be cleaned and allowed rest unused for a while. It is well to allow it to hang where the sunlight can play on it. Acrid matters will dry out and the pipe will be sweet when smoked again. It is a good plan to pack the bottom of the bowl with powdered chalk when it is resting.
(6) A pipe shouldn't be used continuously for more than a couple of weeks or a month. After that, it should be cleaned and left unused for a bit. It's a good idea to let it hang where sunlight can reach it. Harsh residue will dry out, and the pipe will taste nice when smoked again. It's smart to pack the bottom of the bowl with powdered chalk while it rests.
When a pipe tastes acrid it requires more than ordinary cleaning. If one has the opportunity a most excellent way is to blow steam through it, first removing the mouthpiece. Another way recommended by a smoker who says it is most efficacious is to fit a cork into the bowl of the pipe. Make a hole in the cork, into which the nozzle of a soda siphon will fit snugly. Direct the mouthpiece into some emptying vessel and force about a wine glass of the soda[Pg 169] water from the siphon through the pipe. It will clean it out effectively.
When a pipe has a bitter taste, it needs more than just a regular cleaning. If you can, a great method is to blow steam through it after you’ve taken off the mouthpiece. Another method recommended by a smoker who says it works really well is to plug the bowl of the pipe with a cork. Make a hole in the cork that fits the nozzle of a soda siphon snugly. Point the mouthpiece into an empty container and force about a wine glass of soda[Pg 169] water from the siphon through the pipe. This will clean it out effectively.
If you are smoking a meerschaum and desire it to color well and evenly it is a good plan to use a false upper bowl to fit inside the bowl of your pipe. The rim of fire where the tobacco is burning makes the pipe bowl too hot and does not allow that part to color. The false bowl will prevent this. Some smokers think that covering a meerschaum bowl with chamois will cause it to color well. The chamois will not aid the coloring but it will protect the bowl from being touched by the hand during the process and thus avoiding a spotty effect, particularly if the hand should be moist or greasy. During the progress of the coloring the pipe should never be allowed to get too hot. The time required to color a pipe depends on the tobacco used. If it is a rich oily tobacco, the time necessary is shorter than with a dry tobacco.
If you're smoking a meerschaum pipe and want it to color nicely and evenly, it's a good idea to use a false upper bowl that fits inside your pipe's bowl. The heat from the burning tobacco makes the pipe bowl too hot and prevents that area from coloring. The false bowl will help with this. Some smokers believe that covering a meerschaum bowl with chamois will improve the coloring. While the chamois won't help with the coloring itself, it will protect the bowl from being touched by your hand during the process, preventing a spotty effect, especially if your hand is moist or greasy. During the coloring process, you should never let the pipe get too hot. The time it takes to color a pipe depends on the tobacco you use. If you're using a rich, oily tobacco, it will take less time than with a dry tobacco.
Imitation meerschaum of the cheaper kind are sometimes artificially colored by the makers. This is done by boiling the pipe in an oily solution of nicotine, the formula for which as given in the American Druggist, V. 58, is:
Imitation meerschaum of the cheaper kind is sometimes artificially colored by the makers. They achieve this by boiling the pipe in an oily solution of nicotine, the formula for which is provided in the American Druggist, V. 58, as:
Crude nicotine (oil of tobacco)==℥ i.
Olive oil==℥ ii.
Yellow wax==℥ viii.
Crude nicotine (tobacco oil) == 1 oz.
Olive oil == 2 oz.
Yellow wax == 8 oz.
[Pg 170]The pipe is kept in the boiling solution from 10 to 15 minutes and rapidly absorbs it. The surface is capable of a high polish.
[Pg 170]The pipe is placed in the boiling solution for 10 to 15 minutes and quickly absorbs it. The surface can achieve a high polish.
REFERENCES
REFERENCES
Penn, W. A. The Soverane Herbe: a History of Tobacco. London and New York, 1901.
Penn, W. A. The Sovereign Herb: A History of Tobacco. London and New York, 1901.
Fairholt, F. W. Tobacco; its History and Associations. London, 1876.
Fairholt, F.W. Tobacco; its History and Associations. London, 1876.
CHAPTER XVII
EFFECTS OF TOBACCO SMOKING ON THE HUMAN SYSTEM
EFFECTS OF TOBACCO SMOKING ON THE HUMAN BODY
Physical effects. Opinions of medical men quoted and discussed.
Physical effects. Opinions from doctors cited and discussed.
EFFECTS OF TOBACCO SMOKING ON THE HUMAN SYSTEM
EFFECTS OF TOBACCO SMOKING ON THE HUMAN BODY
It is a matter of very great importance for the user of tobacco that he should have clear information regarding the beneficial and harmful effects of tobacco on the human mind and body. There are very few matters which have been the subject of such varied opinions; such exaggeration and misconception. Those who are opposed to the use of tobacco have not hesitated to ascribe to it every form of evil, physical, mental and moral. Insanity, epilepsy, cancer, malignant throat disease, blindness, heart disease and a host of other diseased conditions are traced to tobacco smoking by its enemies. On the other hand the users of tobacco are scarcely less vehement in holding that no harmful effects follow, but ascribing all kinds of virtue as resulting from its use. It is not our object in this chapter to justify or recommend the use, or to advise the avoidance of tobacco; we think it is a matter that the individual should decide for himself. Moreover, we think that no general rules governing all cases can be laid down, but that each individual must judge for himself whether the use of tobacco is justified in his own particular case or not, taking into consideration all the [Pg 174]circumstances that affect him. The important thing is that he should possess clear and correct information with regard to the effects of tobacco as far as such have been scientifically determined; and from the observation of its effects on his own organism to determine whether in his own case the practice is beneficial or otherwise and to what extent it may be pursued if he desires to smoke.
It’s really important for tobacco users to have clear information about the positive and negative effects of tobacco on their minds and bodies. There are very few topics that have sparked such a wide range of opinions, along with a lot of exaggeration and misunderstandings. Those against tobacco don’t hesitate to blame it for all kinds of problems—physical, mental, and moral. They link tobacco smoking to insanity, epilepsy, cancer, severe throat illnesses, blindness, heart disease, and many other health issues. Conversely, tobacco users often insist that there are no harmful effects and instead claim all sorts of benefits from using it. In this chapter, our goal isn’t to justify or recommend using tobacco or to suggest avoiding it; we believe individuals should make that decision for themselves. Additionally, we think there can’t be general rules that apply to everyone; each person must decide if using tobacco is justified in their specific situation, considering all the [Pg 174]circumstances that impact them. What matters most is that they have clear and accurate information about the effects of tobacco based on what has been scientifically proven, and they should observe its effects on their own bodies to determine whether using tobacco is beneficial or harmful for them, and to what extent they want to smoke.
We, therefore, purpose to submit the facts which have been determined by the most careful scientific investigators and others of high standing, who, from their experience in the investigation of the causes of disease, are best qualified to offer opinions which may be accepted as authoritative.
We aim to present the facts established by the most diligent scientific researchers and other respected individuals, who, due to their experience in studying the causes of disease, are most qualified to provide opinions that can be considered authoritative.
A perusal of the vast amount of literature both for and against the use of tobacco brings out certain points very largely. First, in the case of the opponents, the most sweeping statements are made without a particle of scientific proof in support of them, by persons who are in no way qualified to make such statements. Statistics are quoted most recklessly and accepted as conclusive, although in most cases there is no logical connection between the matter of the statistics and the absolute effects of tobacco. If there is a question of a certain condition, it is not sufficient to show that the[Pg 175] person suffering from it was a user of tobacco and to allege, therefore, that tobacco was the cause of the condition. It must be shown conclusively that no other circumstances than the use of tobacco could have caused this condition. Dr. T. W. Jenkins, of Albany, N. Y., (New York Medical Journal, 1915, V. 102, p. 355), who was awarded a prize by this leading medical journal for his essay on tobacco smoking says: “The first thing to bear in mind is that considering the large amount of tobacco used very little harm results, and care should be taken not to incriminate tobacco when the troubles under observation may be due to other causes.”
A look at the extensive literature both supporting and opposing tobacco use highlights some key points. First, those against tobacco often make sweeping claims without any scientific evidence to back them up, and these claims come from people who aren’t qualified to make such statements. Statistics are cited carelessly and accepted as definitive, even though there’s often no logical link between the statistics and the actual effects of tobacco. If there’s a question about a specific health condition, it’s not enough to simply point out that the person affected used tobacco and claim that it caused the condition. It must be proven that no other factors besides tobacco could have led to that condition. Dr. T. W. Jenkins from Albany, N.Y. (New York Medical Journal, 1915, V. 102, p. 355), who received an award from this prominent medical journal for his essay on tobacco smoking, states: “The first thing to keep in mind is that given the large amount of tobacco used, very little harm occurs, and we should be careful not to blame tobacco when the issues being observed may stem from other causes.”
Secondly, among the investigators themselves who have made impartial inquiries about the effects of tobacco, there is sometimes a wide difference of opinion in the interpretation of results and in the relation of cause and effect. Thus most varied opinions exist on the subject of nicotine. The result is that it is difficult for the average man to come to a satisfactory conclusion on the subject; for it cannot be said that the scientific knowledge of the effects of tobacco smoking on the human system as presented to us today is final or sufficiently well determined to enable definite and true conclusions to be arrived at.
Secondly, among the researchers who have conducted unbiased studies on the effects of tobacco, there is often significant disagreement regarding the interpretation of results and the relationship between cause and effect. As a result, a wide range of opinions exists on the topic of nicotine. This variability makes it hard for the average person to reach a satisfying conclusion, as we cannot say that the current scientific understanding of how tobacco smoking affects the human body is definitive or clear enough to draw solid and accurate conclusions.
[Pg 176]Thirdly, there is the widespread error of ascribing the evils of the abuses of tobacco to the use of tobacco. This matter of the use and abuse of tobacco cannot be put too clearly. Most medical investigators have based their results clearly on the excessive use of tobacco. It is a very rare thing to find a medical investigator drawing attention to any harmful results following the moderate use of tobacco, and it appears a just statement to make that the majority of men use tobacco in moderation. It appears to be true that excessive smoking is harmful and is capable of producing deleterious effects on the respiratory and nervous systems in man, but it has never been scientifically proved that the moderate use of tobacco has any particularly harmful effects. Moreover, it is well-known to the medical profession and so stated constantly that in many cases where the use of tobacco has produced bad effects on the eye, nerves, etc., its use is contra-indicated, owing to the condition of the subject due to other causes and that such results would not occur in a normally healthy subject. Therefore, because tobacco when used excessively or when used by persons who are not constitutionally fitted for it, produces bad effects, it is not logical to argue, as many opponents of tobacco[Pg 177] smoking do, that the use of tobacco is universally harmful.
[Pg 176]Thirdly, there's a common mistake of blaming the problems caused by the abuse of tobacco on the use of tobacco itself. The distinction between use and abuse of tobacco needs to be made very clear. Most medical researchers have based their findings primarily on the excessive use of tobacco. It’s quite rare to find a medical researcher pointing out any negative effects following moderate tobacco use, and it seems fair to say that most people use tobacco moderately. It's true that excessive smoking is harmful and can produce negative effects on the respiratory and nervous systems in humans, but scientific evidence has never shown that moderate tobacco use has any seriously harmful effects. Additionally, it's well known in the medical field—and often stated—that in many cases where tobacco use has led to adverse effects on the eyes, nerves, etc., it is because of the individual's condition due to other factors, and these results wouldn’t happen in a normally healthy person. Therefore, because tobacco can have negative effects when used excessively or by individuals who aren’t suited for it, it isn't logical to argue, as many opponents of tobacco [Pg 177] smoking do, that tobacco use is universally harmful.
Fourthly, the conclusions arrived at by some investigators, are based on experiments made on animals, and it appears quite open to criticism, and is in fact disproved by common experience, that such results will follow when applied to man. Hinging on this is the question of immunity and toleration. The human system will easily after use tolerate effects which at first it rebels against. This may easily be seen in muscular and other efforts. Let a man who is constantly leading a sedentary life suddenly walk 10 miles. The result is almost prostration and he will not recover from it for a considerable time. Let him, however, commence by walking a mile or two and gradually at each walk increase the distance, and in a short while he will be able to walk 10 miles without feeling any fatigue. Similarly running or other rapid exercise to a person not used to it will produce such rapid disturbances in the respiration and circulation as even to be fatal, while the seasoned athlete may perform such feats without the least ill effects.
Fourthly, the conclusions drawn by some researchers are based on experiments conducted on animals, and it's quite open to criticism, and indeed contradicted by common experience, that such results will hold true when applied to humans. This raises the issue of immunity and tolerance. The human body can quickly learn to tolerate effects that it initially reacts against. This is easy to observe in physical activities. If a person who usually leads a sedentary lifestyle suddenly tries to walk 10 miles, the outcome is almost exhaustion, and they won't recover for quite some time. However, if they start by walking one or two miles and gradually increase the distance with each walk, they will soon be able to walk 10 miles without feeling tired at all. Similarly, for someone who isn't accustomed to it, running or other vigorous exercise can cause immediate disturbances in breathing and circulation that could even be fatal, while a trained athlete can perform such activities without any adverse effects.
To take animals or persons who have never before used tobacco and to argue or conclude that the effects of tobacco smoke on them are the effects of tobacco on smokers generally is[Pg 178] absurd. Yet such experimental results are very often made the basis of denunciation of tobacco smoking.
Taking animals or people who have never smoked tobacco and claiming that the effects of tobacco smoke on them are the same as those on regular smokers is[Pg 178] ridiculous. However, these experimental results are frequently used to criticize tobacco use.
Finally most investigators have made their inquiries for the exclusive purpose of discovering the evil effects of tobacco smoking. They proceed to their work with a biassed mind. They have already assumed that the habit is harmful and they simply want to find out how much harm they can discover. They are prejudiced from the beginning. It is to this class of investigator that Dr. John Aikman refers to (New York Medical Journal, Oct. 30, 1915), when he says: “In reading the literature on the use of tobacco we are impressed by the fact that much of it is written by persons greatly opposed to the use of the plant, and naturally prejudiced.” It is quite conceivable that a man may investigate the evil effects which follow from wearing clothes and shoes and he could undoubtedly find some evil effects; but the users of such articles could very justly say that the beneficial results of such habits more than outweighed the demonstrated harm that might occur. And then the user of tobacco might say that the beneficial effects of smoking more than compensated for any slight harm that may happen. For tobacco has undoubtedly many excellent effects, and no one knows this better than[Pg 179] the smoker himself. He will readily admit that excess is bad. He will readily admit that the use of tobacco is not suitable to immature persons, or in fact to many other persons, but he insist that in the majority of cases, it is not only practically harmless but that it has many desirable qualities, for that is proved by his own experience and the experience of millions of other smokers in all ages and under all conditions.
Finally, most researchers have conducted their investigations mainly to uncover the harmful effects of tobacco smoking. They approach their work with a biased mindset. They have already assumed that the habit is harmful and simply want to determine how much harm they can find. They are prejudiced from the start. This is the type of researcher Dr. John Aikman is referring to (New York Medical Journal, Oct. 30, 1915), when he notes: “In reading the literature on the use of tobacco, we are struck by the fact that much of it is written by people who are strongly opposed to using the plant and are therefore naturally biased.” It's quite possible for someone to investigate the negative effects of wearing clothes and shoes, and they could certainly find some drawbacks; however, users of these items could justly argue that the benefits far outweigh the proven harms. Similarly, a tobacco user might argue that the positive effects of smoking more than compensate for any minor harm that may occur. Tobacco indeed has many positive effects, and no one understands this better than[Pg 179] the smoker themselves. They would readily acknowledge that excess is harmful. They would agree that tobacco use isn’t appropriate for young people or many others, but they insist that in most cases, it is not only practically harmless but has many desirable qualities, as evidenced by their own experience and the experiences of millions of other smokers throughout history and under various conditions.
We will now proceed to consider some of the effects which have been ascribed to tobacco smoking and give expressed opinions concerning them.
We will now look at some of the effects that are attributed to tobacco smoking and share opinions about them.
Physical Effects of Tobacco Smoking
Health Effects of Tobacco Use
The principal deleterious effects on the human system ascribed to the use of tobacco are:
The main harmful effects on the human body linked to tobacco use are:
(a) Throat diseases.
Throat conditions.
(b) Disturbance of vision.
Vision disturbance.
(c) Heart troubles (smokers’ heart).
Heart issues (smokers’ heart).
(d) Disturbance of the digestive organs (dyspepsia, etc.).
(d) Disruption of the digestive system (indigestion, etc.).
(e) Disturbance of the nervous system.
(e) Disruption of the nervous system.
(f) Disturbance of nutrition.
Nutritional disruption.
As regards (a) throat diseases, the following is the opinion of Dr. H. Reik of the Johns Hopkins University, surgeon to the Baltimore Eye, Ear and Throat Hospital, as expressed by him[Pg 180] in the Boston Medical and Surgical Journal, Vol. 162, p. 856, 1910:
As for (a) throat diseases, here’s what Dr. H. Reik from Johns Hopkins University, a surgeon at the Baltimore Eye, Ear and Throat Hospital, stated[Pg 180] in the Boston Medical and Surgical Journal, Vol. 162, p. 856, 1910:
“There is not one scintilla of evidence that malignant disease of the throat is due in any way to the use of tobacco; and if it be admitted that carcinoma (cancer) of the lip or tongue has been produced by smoking, it is clearly not tobacco, but traumatism (i. e., injury) from the stems of the pipe or other tobacco container that is responsible.
“There is not a single bit of evidence that throat cancer is caused in any way by using tobacco; and even if we accept that cancer of the lip or tongue can be caused by smoking, it is clearly not tobacco, but rather injury from the stems of the pipe or other tobacco holder that is to blame."
“It does not appear or at least has not been proven that tobacco causes any definite characteristic lesions of the nose, throat or ear.”
“It doesn't seem to be proven that tobacco causes any specific lesions in the nose, throat, or ear.”
Dr. Reik is a man of high standing in the medical profession. His opinion is clear and unmistakable and it is presumed he has seen thousands of cases of nose and throat diseases and knows what he is talking about.
Dr. Reik is a respected figure in the medical field. His views are clear and undeniable, and it's assumed he has encountered thousands of cases involving nose and throat diseases and knows his stuff.
Dr. Reik refers to the question of so-called smokers’ cancer. Cancer is a disease which attacks all kinds of people and may occur in widely different parts of the body. The causation of this disease is not known to the medical profession but what is known about it is that it usually occurs on the site of some previous injury. Thus cancer may occur on the tongue as the result of the constant irritation of a jagged broken tooth.
Dr. Reik talks about the issue of what’s known as smokers’ cancer. Cancer is a disease that can affect anyone and can develop in various parts of the body. The medical community doesn’t fully understand what causes this disease, but it is known that it often arises in areas that have previously been injured. For example, cancer might develop on the tongue due to the ongoing irritation from a jagged broken tooth.
[Pg 181]Dr. I. C. Bloodgood (Boston Medical and Surgical Journal, No. 2, 1914), who has examined 200 cases of lip cancer says that smoking is a common factor, the disease when occurring being usually on the site of a neglected and ulcerated smoker’s burn. The burn may be a charring of the skin due to a very hot pipe stem or burning cigar stem. He says, moreover, that if the burn is not continued and there is no other injury, this defect may heal without evidence of ulceration.
[Pg 181]Dr. I. C. Bloodgood (Boston Medical and Surgical Journal, No. 2, 1914), who has looked at 200 cases of lip cancer, states that smoking is a common factor. The disease usually develops at the site of a neglected and ulcerated burn caused by smoking. This burn can result from a hot pipe stem or a burning cigar. He also notes that if the burn is not ongoing and there’s no other injury, this damage can heal without showing any signs of ulceration.
Similarly a cancer may be the result of continual use of a broken or rough pipe stem or from using a dirty pipe stem on a broken skin. All these are clearly matters which the average smoker easily and usually avoids. It is, however, clear that tobacco itself is in no way responsible for cancer, and no responsible medical writer on the subject alleges that it is.
Similarly, cancer can result from repeatedly using a broken or rough pipe stem or from using a dirty pipe stem on broken skin. These are clearly issues that the average smoker can easily and typically avoid. However, it is clear that tobacco itself is not responsible for cancer, and no reputable medical writer on the subject claims that it is.
Most of the medical writers who have inscribed injurious physical effects on the nervous system, heart and sense organs, to excessive tobacco smoking have stated that these effects are due to the toxic action of the alkaloid nicotine known to exist in tobacco. There is a wide difference, however, in the results obtained by different writers as to the amount of the nicotine in tobacco which finds its way with the tobacco smoke. Moreover, some of the [Pg 182]investigators who have done very careful work do not consider that nicotine is the toxic element, but the substance called pyridine which is derived from it.
Most of the medical writers who have documented harmful physical effects on the nervous system, heart, and sense organs from excessive tobacco smoking have claimed that these effects are caused by the toxic action of nicotine, an alkaloid found in tobacco. However, there is a significant difference in the findings of different writers regarding the amount of nicotine in tobacco that enters the smoke. Additionally, some of the [Pg 182] researchers who have conducted very thorough studies do not believe that nicotine is the toxic component, but rather the substance called pyridine that is derived from it.
Dr. Bush (quoted below) referring to this matter says:
Dr. Bush (quoted below) discussing this matter says:
“From a review of the literature it would appear that extensive studies had been made as to the effects on living organisms of the alkaloid, nicotine. From such studies a great number of writers, especially laymen, have adopted the hasty conclusion that tobacco smoking entailed like results.
“Based on a review of the literature, it seems that extensive studies have been conducted on the effects of the alkaloid nicotine on living organisms. From these studies, many writers, particularly those without scientific training, have quickly concluded that smoking tobacco leads to similar outcomes.”
“Comparatively few studies have been made of the effects of tobacco smoking on human beings; and such as have been made fail to state if the tobacco used or the smoke produced was examined for nicotine or its congeners. The absence of an examination necessarily causes some doubt in the causative faction of the phenomena. Some authors are rather inclined to conclude that nicotine alone is the pathogenic factor in tobacco smoking, but since the presence of nicotine per se in tobacco smoke is debatable and since other toxic substances are demonstrable, it would seem as if the whole subject still remained open for investigation.”
“Very few studies have looked into the effects of tobacco smoking on humans, and those that have been done often don’t clarify whether the tobacco used or the smoke produced was tested for nicotine or its related compounds. This lack of testing raises some doubts about the causes of the effects observed. Some researchers tend to believe that nicotine alone is the harmful factor in tobacco smoking, but since the presence of nicotine on its own in tobacco smoke is disputable and since other toxic substances are evident, it seems that the entire topic is still up for further research.”
The nicotine contained in ordinary tobacco, according to many authors, ranges from about[Pg 183] 1 to 8 or 9 per cent. Lee’s investigation (Journal of Physiology, 1908, p. 335) found that about half of the total nicotine was present in the smoke—according to Lee the pyridin seemed to be entirely without influence.
The nicotine found in regular tobacco, according to many sources, ranges from about[Pg 183] 1 to 8 or 9 percent. Lee’s research (Journal of Physiology, 1908, p. 335) discovered that roughly half of the total nicotine was in the smoke—according to Lee, the pyridine seemed to have no effect at all.
Lehmann (Archiv für Hygiene, 1909, p. 319) found that from 80 to 90% of the total nicotine in a cigar or cigarette was to be found in the smoke. He found also that in the case of cigars about 10 to 18% of the nicotine in the smoke is absorbed by the smoker and that cigarette smoke absorbed by the smoker contains a less proportion of the nicotine in the tobacco than is the case with cigars. The general opinion is, however, that about one-seventh of the nicotine in the tobacco will be found in the smoke.
Lehmann (Archiv für Hygiene, 1909, p. 319) discovered that 80 to 90% of the total nicotine in a cigar or cigarette is present in the smoke. He also found that with cigars, about 10 to 18% of the nicotine in the smoke is absorbed by the smoker, while cigarette smoke has a lower proportion of the nicotine from the tobacco compared to cigars. However, the general belief is that roughly one-seventh of the nicotine in the tobacco is present in the smoke.
Entirely at variance with these results are those obtained recently by A. D. Bush, M.D., Instructor of Physiology in the University of Vermont (New York Medical Journal, March 14, 1914), and those obtained in the laboratory investigation by the London Laucet. Bush made long and extensive investigations on the effects of tobacco smoking and criticised the results of previous workers. He shows very clearly that in many cases the conclusions drawn by them as regards nicotine contained in tobacco smoke are either entirely erroneous or that the deductions made from the investigations[Pg 184] were not warranted by the facts observed. He points out the fact that most writers on the subject have overlooked the fact of the great discrepancy between the possible effects arising from the administration of the amount of nicotine in a cigar and the actual effect produced on the smoker of the cigar. He asks this pertinent question: “If a cigar contains 0.085 grains nicotine, and if one-seventh of the nicotine of the tobacco is present in the smoke and if but .004 grains is capable of causing death, why does the smoker not absorb enough nicotine to cause his demise?”
Completely at odds with these results are those found recently by A. D. Bush, M.D., an instructor of Physiology at the University of Vermont (New York Medical Journal, March 14, 1914), and those from a laboratory study by the London Lancet. Bush conducted extensive research on the effects of tobacco smoking and criticized previous findings. He clearly shows that in many cases, the conclusions drawn by earlier researchers regarding nicotine in tobacco smoke are either completely wrong or that the deductions made from those studies[Pg 184] were not supported by the observed facts. He highlights that most authors on the topic have ignored the significant difference between the potential effects of the nicotine content in a cigar and the actual impact on the smoker. He raises this important question: “If a cigar contains 0.085 grains of nicotine, and if one-seventh of the nicotine in the tobacco is present in the smoke, and if only .004 grains can cause death, then why doesn’t the smoker absorb enough nicotine to lead to their demise?”
As a result of his careful experiments, Bush found that although nicotine was present in all the samples of tobacco tested there was no nicotine whatever found in the smoke, except in the case of cigarettes and in this case only traces were found. The reason of this is given as due to the rapid burning of the cigarette which did not allow sufficient time for the complete decomposition of the nicotine. Pyridine was, however, found in the smoke of all tobacco burned. Pyridine is only one-twentieth as toxic as nicotine. Bush concluded, therefore, that pyridine and not nicotine is the toxic factor in tobacco smoke. The same fact was stated several years ago by Rideal (Disinfection and Preservation of Food, London and New York,[Pg 185] 1903, p. 254), who says: “Tobacco smoke, contrary to popular belief, does not contain nicotine, which is decomposed by the heat; but pyridine and its homologues and the beneficial effects of tobacco in many cases of asthma must be attributed to this latter.”
As a result of his careful experiments, Bush found that while nicotine was present in all the tobacco samples tested, there was no nicotine found in the smoke, except for cigarettes, where only traces were detected. This happens because the quick burning of the cigarette doesn’t allow enough time for the nicotine to completely break down. However, pyridine was found in the smoke from all burned tobacco. Pyridine is only one-twentieth as toxic as nicotine. Therefore, Bush concluded that pyridine, not nicotine, is the harmful substance in tobacco smoke. This same fact was mentioned several years ago by Rideal (Disinfection and Preservation of Food, London and New York,[Pg 185] 1903, p. 254), who states: “Tobacco smoke, contrary to popular belief, does not contain nicotine, which is broken down by heat; but pyridine and its related compounds, and the beneficial effects of tobacco in many cases of asthma must be attributed to this latter.”
The Lancet investigation (see Lancet, Ap. 6, 1912, pp. 944-947) was made because “a recent review of numerous analysis of tobacco which have been published from time to time raises some doubt as to whether the results given correctly represent the actual alkaloidal contents of the tobacco.” Moreover, to find the relationship of the true amount of nicotine in any tobacco to that in the smoke produced by the combustion of that tobacco, and any modification caused by the method of smoking.
The Lancet investigation (see Lancet, Apr. 6, 1912, pp. 944-947) was conducted because “a recent review of various analyses of tobacco that have been published over time raises some doubts about whether the results accurately represent the actual alkaloid contents of the tobacco.” Additionally, it aimed to determine the connection between the actual nicotine content in any tobacco and that in the smoke produced by burning that tobacco, along with any changes caused by the smoking method.
The investigation was conducted under the strictest conditions, the most recent methods of chemical research being employed.
The investigation was carried out under the strictest conditions, using the latest methods of chemical research.
The following table (given by the Lancet) shows the nicotine contents of various tobacco samples and the percentage of nicotine in the smoke:
The following table (provided by the Lancet) displays the nicotine levels in different tobacco samples and the percentage of nicotine in the smoke:
Description of Tobacco. | Per Cent Nicotine in Tobacco | Per Cent Nicotine in Smoke (Pipe). | Per Cent Nicotine in Smoke (Cigarette). | ||||
Virginian Cigarettes (Sample 1) | 1.40 | 0.74 | 0.12 | ||||
Virginian Cigarettes (Sample 2) | 1.60 | 0.60 | 0.06 | ||||
Caporal (French) Tobacco | 2.60 | 2.20 | 0.95 | ||||
Turkish Cigarettes | 1.38 | .... | 0.51 | ||||
Egyptian Cigarettes | 1.74 | .... | 0.21 | ||||
Pipe Smoking Mixture (1) | 2.85 | 2.20 | 2.25 | ||||
Pipe Smoking Mixture (2) | 2.81 | 1.53 | .... | ||||
Pipe Smoking Mixture (3) | 2.04 | 0.23 | .... | ||||
Perique Tobacco | 5.30 | 1.27 | 0.57 | ||||
Cavendish Tobacco | 4.15 | 3.85 | .... | ||||
Latakia Tobacco | 2.35 | 1.20 | .... | ||||
Havana Cigar | 0.64 | .... | 0.20 |
From this analysis it appears that pipe mixtures contain the largest amount of nicotine in the tobacco (2.04-2.85%). Egyptian and Turkish cigarette tobaccos come next (1.38-1.74%). Virginian cigarette tobacco shows similar figures (1.40-1.60%). French tobacco (Caporal) contains 2.60%, and Perique 5.30%. For all practical purposes the tobaccos consumed by the public according to this report seldom contain more than 3% of nicotine and generally less, the average being about 2%, which is much lower than previous writers lead us to expect.
From this analysis, it seems that pipe mixtures have the highest nicotine content in tobacco (2.04-2.85%). Egyptian and Turkish cigarette tobaccos follow next (1.38-1.74%). Virginian cigarette tobacco has similar levels (1.40-1.60%). French tobacco (Caporal) contains 2.60%, and Perique has 5.30%. For all practical purposes, the tobaccos consumed by the public, according to this report, rarely contain more than 3% nicotine and usually less, with the average being about 2%, which is much lower than what earlier writers led us to expect.
The cigarette, whether Egyptian, Turkish or American, yields the least amount of its total[Pg 187] nicotine to the smoke formed, while the pipe yields a very large portion (in some cases between 70 and 80%) of its nicotine to the smoke. Analysis of cigar smoke gives figures midway between the two.
The cigarette, whether it’s Egyptian, Turkish, or American, releases the smallest amount of its total[Pg 187] nicotine into the smoke, while the pipe releases a much larger portion (in some cases between 70 and 80%) of its nicotine into the smoke. Analysis of cigar smoke shows figures that are between the two.
With the results of Bush and the Lancet before him the user of tobacco will be better able to judge of the opinions of those who describe the effects of nicotine on the vision, heart, digestive organs, etc., as likely to be the results of tobacco smoking.
With the findings from Bush and the Lancet in front of him, tobacco users will have a clearer understanding of the views of those who discuss how nicotine impacts vision, the heart, the digestive system, and so on, as likely effects of smoking tobacco.
Thus the disturbance of vision ascribed to tobacco smoking is called tobacco amblyopia.
Thus, the vision problems linked to tobacco smoking are referred to as tobacco amblyopia.
Dr. W. S. Franklin of San Francisco (Calif. State Jour. of Med., 1909, V. 7, p. 85), says that to produce this disease it is necessary to smoke daily from .75 to 1.0 gms. of pure nicotine. If 17% of the nicotine of tobacco is carried in the smoke, in order to absorb that quantity 7 or 8 cheap domestic cigars, 10 or 11 Cubans or 60 cigarettes should be smoked. Now very few smokers consume this amount and according to Bush, and the Lancet, and others there is no such percentage of nicotine in the smoke.
Dr. W. S. Franklin from San Francisco (Calif. State Jour. of Med., 1909, V. 7, p. 85) states that to develop this disease, a person needs to smoke daily between 0.75 to 1.0 grams of pure nicotine. If 17% of the nicotine in tobacco is released in the smoke, then to absorb that amount, one would need to smoke 7 or 8 inexpensive domestic cigars, 10 or 11 Cuban cigars, or 60 cigarettes. However, very few smokers actually consume this amount, and according to Bush, as well as the Lancet and others, there is no such percentage of nicotine in the smoke.
To the use of tobacco is ascribed an acid dyspepsia—this, however, is noticed more particularly in habitual chewers and in this case the nicotine not being burnt has no chance of[Pg 188] being decomposed. All writers have agreed that chewing is the worst way that tobacco can be used. Dr. R. V. Dolbey says: (Northwest Medicine, 1909, V. 1 p. 99).
Using tobacco is linked to acid indigestion—this is especially seen in regular chewers since the nicotine isn't burned and doesn't get a chance to[Pg 188] decompose. All authors agree that chewing is the worst way to use tobacco. Dr. R. V. Dolbey says: (Northwest Medicine, 1909, V. 1 p. 99).
“In chewing, quantities of watery extract of tobacco are swallowed and taken down with the food containing a large percentage of nicotine and causing severe dyspepsia. While tobacco juice solution in the laboratory kills intestinal bacteria, excessive tobacco chewing does not have this effect on the human body owing to the fact that the gastric and pancreatic juices act on it and alter it.”
“In chewing, large amounts of watery tobacco extract are swallowed along with food that has a high nicotine content, leading to serious indigestion. While tobacco juice solution can kill intestinal bacteria in the lab, excessive chewing of tobacco doesn’t have the same effect in the human body because gastric and pancreatic juices break it down and change it.”
Dr. I. S. Gilfilian discusses the effects of tobacco on the heart in the St. Paul Medical Journal, July, 1912, p. 338. He says that the important part whether organic changes in the cardio-vascular system may be produced by tobacco is still doubtful, and that it has never been shown that smokers suffer more from organic heart disease than nonsmokers.
Dr. I. S. Gilfilian talks about how tobacco affects the heart in the St. Paul Medical Journal, July, 1912, p. 338. He mentions that it's still unclear whether tobacco can cause organic changes in the cardiovascular system, and that there's no evidence showing that smokers experience more organic heart disease than non-smokers.
General opinion is that smoking lessens the pulse rate and slightly increases the blood pressure, and that it is a cause of arterio-sclerosis.
General opinion is that smoking lowers the pulse rate and slightly raises blood pressure, and that it contributes to arteriosclerosis.
With regard to arterio-sclerosis, Dr. A. Lorand of Carlsbad who is a world-wide authority on the effects of toxic substances on the blood, says in his book, Old Age Deferred (English translation, 1910, p. 367):
With respect to arteriosclerosis, Dr. A. Lorand of Carlsbad, a global expert on the effects of toxic substances on the blood, states in his book, Old Age Deferred (English translation, 1910, p. 367):
[Pg 189]“Clinically we have observed the great frequency of arterio-sclerosis in great smokers, but we do not think that two or three light cigars a day, but never before meals, can do any harm save in exceptional cases. Indeed there are a few instances of persons living to be over 100, notwithstanding the fact that they were smokers—a fact contrary to the observation of Hufeland who pretends that he never heard of such a case. The famous English painter, Frith, who died in October, 1909, used to smoke 6 cigars a day, and Mr. F. of Chartres, in France, passed last year his 100th birthday in spite of his having taken snuff all his life.”
[Pg 189]“Clinically, we've noticed a high occurrence of arteriosclerosis in heavy smokers, but we believe that two or three light cigars a day, as long as they’re not smoked before meals, aren't harmful except in rare cases. In fact, there are a few examples of people living past 100 years old despite being smokers—a point that contradicts Hufeland's claim that he has never heard of such cases. The famous English painter, Frith, who passed away in October 1909, used to smoke six cigars a day, and Mr. F. from Chartres, France, celebrated his 100th birthday last year, even though he had been a lifelong snuff user.”
If there were any serious lesions caused in the human system by the continued use of tobacco we might naturally expect that life insurance companies would take notice of it, but hear what they have to say (Medical Record, New York, July 12, 1913):
If there were any serious damage done to the human body by the ongoing use of tobacco, we would expect that life insurance companies would pay attention to it, but listen to what they have to say (Medical Record, New York, July 12, 1913):
Dr. H. G. Turney, at the meeting of Life Insurance Medical Officers Association, London, January, 1913, said that as far as observation and study of the literature went he did not consider that there was much evidence that the habit of smoking can be convicted of any serious effect on the mortality table. One must confess rather to a feeling of surprise that the life-long absorption of so potent a drug as[Pg 190] nicotine by a large proportion of the male population should not be accompanied by more obvious results in the way of serious injury to the cardiac muscle than appears to be the case.
Dr. H. G. Turney, at the meeting of the Life Insurance Medical Officers Association in London, January 1913, stated that based on his observations and review of the literature, he didn’t think there was much evidence to prove that smoking significantly affects mortality rates. One can’t help but feel surprised that the lifelong consumption of such a powerful drug as[Pg 190] nicotine by such a large portion of the male population doesn’t seem to lead to more apparent serious damage to the heart muscle than what is observed.
Dr. A. Marvin of the Department of Pharmacology, Vermont University, made numerous experiments on the effects produced by tobacco. In the cases of the respiratory system, he states that in rapid smoking the respiratory rate is increased, due more to the effort than to the drug. In deliberate smoking there is very little effect. In the digestive system the effects produced were, increased flow of saliva and stimulation of the mucous membrane of the stomach and intestines. Marvin did not find any important symptoms of systemic irregularities except where there was excessive use of tobacco. He says: “Tobacco produces, when used to excess, symptoms in a very small per cent and often it is only one factor in producing the conditions observed.” A very cautiously expressed and noncommittal opinion.
Dr. A. Marvin from the Department of Pharmacology at Vermont University conducted numerous experiments on the effects of tobacco. He found that in the respiratory system, rapid smoking increases the breathing rate, primarily due to the effort rather than the drug itself. In contrast, deliberate smoking has very little effect. In the digestive system, the effects observed include an increased flow of saliva and stimulation of the mucous membranes in the stomach and intestines. Marvin did not find any significant symptoms of systemic irregularities, except in cases of excessive tobacco use. He notes, “Tobacco produces, when used to excess, symptoms in a very small percentage and often it is only one factor in producing the observed conditions.” This is a carefully stated and somewhat noncommittal opinion.
It is to be remembered that of the percentage of nicotine in tobacco smoke only a small portion is drawn into the smoker’s system. The greater part passes off again in the smoke passed out; also that the products of combustion of tobacco include acqueous solution as[Pg 191] well as smoke; it will not probably be questioned that some of this watery solution is drawn into the mouth as well as the smoke and probably contains minute quantities of nicotine or its derivatives.
It’s important to note that only a small percentage of the nicotine in tobacco smoke is actually absorbed into the smoker’s body. Most of it is released back into the air when the smoke is exhaled. Furthermore, the combustion of tobacco produces both a watery solution [Pg 191] and smoke; it’s likely that some of this liquid is also taken into the mouth along with the smoke and may contain trace amounts of nicotine or its derivatives.
The smoker may obviate any slight harmful effects of these substances by care. If he is a cigar smoker he must avoid chewing or sucking the butt end of the cigar in which the acqueous solution finally gathers, and he would find it better to smoke long thin cigars which afford a small area behind the burning point for the collection of acqueous vapor and give a better combustion. Judged from these viewpoints the best and most expensive thick cigar is likely to be more harmful than the very worst kind of a cigarette, for although there may be a much smaller percentage of nicotine in the cigar tobacco, a much larger proportion of it may reach the mouth of the smoker through the water produced by combustion, in the case of the cigar than in the case of the cigarette.
The smoker can reduce any minor harmful effects of these substances by being careful. If he smokes cigars, he should avoid chewing or sucking on the end of the cigar where the liquid gathers. It’s better to smoke long, thin cigars, which have less surface area behind the burning point for the build-up of moisture and allow for better combustion. From this perspective, the best and most expensive thick cigar might actually be more harmful than the worst cigarette. Even though there’s often a smaller percentage of nicotine in cigar tobacco, a larger amount can reach the smoker’s mouth through the water produced by burning in the case of a cigar compared to a cigarette.
Every cigar and cigarette smoker should use a holder for the reason stated. The cigarette from the nicotine point of view is the least objectionable form of smoking. In fact expert opinion is recognizing that unless where the smoke is inhaled cigarette smoking if not excessive is probably harmless. It is hard, of[Pg 192] course, to kill a popular prejudice, but we have to deal with demonstrated facts not prejudices. In the case of inhalation of cigarette smoke the danger is from carbon monoxide gas and not from nicotine.
Every cigar and cigarette smoker should use a holder for this reason. From a nicotine perspective, cigarettes are the least harmful way to smoke. In fact, expert opinions are recognizing that unless the smoke is inhaled, smoking cigarettes in moderation is probably harmless. It’s challenging, of course, to change a deeply held belief, but we need to focus on proven facts rather than biases. When it comes to inhaling cigarette smoke, the real danger comes from carbon monoxide gas, not nicotine.
When the difference of opinion amongst authoritative investigators are discounted their general results will be found to agree very well with the general facts observed by all users of tobacco. What they see is that probably seventy per cent of the adult male population under all conditions and circumstances use tobacco within limits of moderation. They see around them men who have for many years used it, and they do not observe any particular harmful results in the user of tobacco compared with the nonuser. Men as a rule are not more nervous, more subject to heart troubles or age troubles than women, who as a sex, do not use tobacco. Smokers do not deny and never have denied that the abuse of tobacco is harmful.
When the differences of opinion among leading researchers are set aside, their overall findings tend to align closely with the general observations made by all tobacco users. They notice that about seventy percent of the adult male population, under various conditions, uses tobacco in moderation. They see men who have been using it for many years without noticing any specific harmful effects in tobacco users compared to non-users. Generally, men aren’t more anxious, more prone to heart issues, or more affected by aging than women, who typically do not use tobacco. Smokers acknowledge, and have always acknowledged, that excessive use of tobacco is harmful.
The general view that both scientific investigators and popular observation is able to support is well expressed by Clouston, who is a world known authority on nervous and mental disease. (See Hygiene of Mind, 3rd Ed. London, 1906, p. 260.)
The common understanding that both scientists and everyday observations can back up is clearly articulated by Clouston, a globally recognized expert on nervous and mental disorders. (See Hygiene of Mind, 3rd Ed. London, 1906, p. 260.)
“If its use is restricted to full grown men, if only good tobacco is used not of too great[Pg 193] strength, and if it is not used to excess, then there are no scientific proofs that it has any injurious effects, if there is no idiosyncracy against it.... Speaking generally, it exercises a soothing influence when the nervous system is in any way irritable. It tends to calm and continuous thinking and in many men promotes the digestion of food.
"If its use is limited to fully grown men, if only quality tobacco is used that isn't too strong, and if it's not overused, then there's no scientific evidence that it has any harmful effects, assuming there's no individual sensitivity to it. Generally speaking, it has a calming effect when the nervous system is irritated. It helps with steady and continuous thinking and in many men aids in digestion."
“Tobacco, properly used may, in some cases, undoubtedly be made a mental hygienie.”
“Tobacco, when used correctly, can undoubtedly serve as a mental health aid in some cases.”
Mann (Brit. Med. Journal, 1908, V. II, p. 1673), expresses a similar opinion thus: “Most men if they choose to smoke can do so within certain limits without injury to health. Some men can exceed such limits with apparent impunity. The extent of the limitation must be determined by each man for himself.”
Mann (Brit. Med. Journal, 1908, V. II, p. 1673) shares a similar view: “Most men can smoke if they want to, as long as they stick to certain limits that won't harm their health. Some guys can go beyond those limits without seeming to suffer any consequences. Each man needs to figure out what those limits are for himself.”
CHAPTER XVIII
THE BENEFICIAL EFFECTS OF TOBACCO
THE BENEFITS OF TOBACCO
Its disinfecting action. Protection against infectious disease.
Psychological effects of smoking.
Its disinfecting action. Protection against infectious diseases.
Psychological effects of smoking.
THE BENEFICIAL QUALITIES OF TOBACCO
THE HEALTH BENEFITS OF TOBACCO
In the previous chapters the possible harmful effects of using tobacco have been dealt with at length. In this chapter we shall deal shortly with some positive beneficial effects.
In the previous chapters, we discussed the potential harmful effects of using tobacco in detail. In this chapter, we will briefly cover some positive benefits.
There is very little doubt that tobacco is a strongly protective agent against infection from disease. Its germicidal qualities are well-known and recognized. It is now recognized by medical writers that the mouth is one of the principal, if not the principal channel of infection for many infective diseases. The cavities of the teeth are the breeding places of hosts of pathogenic bacteria, of which there are about 100 different varieties arising from decaying food and other sources. These destructive agents, many of them highly pathogenic, easily find their way from the mouth through various channels to the inside of the body. Many infective organisms floating in the air are drawn into the mouth in the act of respiration and this is a common method of falling a victim to contagion.
There’s little doubt that tobacco acts as a strong protective agent against disease infection. Its germicidal properties are well-known and recognized. Medical writers now acknowledge that the mouth is one of the main, if not the main, routes for infection from many diseases. The spaces in our teeth are breeding grounds for numerous harmful bacteria, with about 100 different types emerging from decaying food and other sources. These harmful agents, many of which are highly infectious, can easily enter the body through various pathways from the mouth. Additionally, many infectious organisms present in the air are inhaled into the mouth during breathing, making this a common way to catch contagion.
The effect of tobacco juice on the bacteria of the human mouth was investigated by Dr. W. D. Fullerton and is reported by him in the Cleveland Med. Journal 1912, page 585.
The impact of tobacco juice on the bacteria in the human mouth was studied by Dr. W. D. Fullerton, and he reported his findings in the Cleveland Med. Journal 1912, page 585.
[Pg 198]In his experiments Fullerton used tobacco juice obtained from the human mouth by chewing plug tobacco. He also used a solution of smoke obtained from a well seasoned pipe. These were first thoroughly sterilized in order to obtain a pure natural mixture of tobacco and saliva. Cultures of well-known species of bacteria were made using every laboratory precaution so as to obtain accurate results. Specimens of these bacterial cultures were then submitted to the action of the tobacco juice. It was found that exposure for one hour killed or rendered innocuous 15 to 98 per cent of the bacteria; exposure for 24 hours acted similarly on from 84 to 100%. Dr. Fullerton gives his opinion, from his results, that it seems that a pipeful of tobacco was more toxic to bacteria than one chew; but chewing tends to loosen retained food particles, foci of bacteria, etc., and much of this is ejected from the mouth. Fullerton’s work agreed very well with the results obtained by other workers in the same line of investigation. In Miller’s Micro-organisms of the Human Mouth, p. 246, it is stated that the organisms of the mouth lead only a miserable existence in a mixture of an infusion of tobacco, sugar and saliva; and that the smoke of the last one-third or the first one-fourth of a Colorado Claro cigar sterilized ten cubic [Pg 199]centimeters of beef extract solution which had been richly inoculated with bacteria from decayed teeth. Arnold, Lancet (London, 1907) reports similar experiences with some of the most virulent types of infective bacteria.
[Pg 198]In his experiments, Fullerton used tobacco juice collected from the human mouth by chewing plug tobacco. He also used a solution of smoke obtained from a well-seasoned pipe. Both were thoroughly sterilized to create a pure natural mix of tobacco and saliva. Cultures of well-known bacterial species were prepared with strict laboratory precautions to ensure accurate results. Samples of these bacterial cultures were then exposed to the tobacco juice. It was found that exposure for one hour killed or neutralized 15 to 98 percent of the bacteria; exposure for 24 hours had a similar effect on 84 to 100 percent. Dr. Fullerton concluded from his findings that a pipeful of tobacco was more toxic to bacteria than one chew; however, chewing tends to dislodge food particles and bacteria, much of which gets expelled from the mouth. Fullerton’s results matched well with those from other researchers in the same field. In Miller’s Micro-organisms of the Human Mouth, p. 246, it states that oral organisms have a tough time surviving in a mixture of tobacco, sugar, and saliva; and that the smoke from the last one-third or first one-fourth of a Colorado Claro cigar sterilized ten cubic [Pg 199]centimeters of beef extract solution that had been heavily inoculated with bacteria from decayed teeth. Arnold, in Lancet (London, 1907), reported similar findings with some of the most aggressive types of harmful bacteria.
Both nicotine and its derivative pyridine as well as the tarry oils resulting from tobacco distillation are strong and effective disinfectants; and formaldehyde, one of the most powerful germicides known, is so formed. Trillat, Annales de l’Institut Pasteur (Paris), Vol. 19, p. 722, shows that 100 grams of pipe tobacco will yield .063 grams and 100 grams weight of cigar .118 grams of formaldehyde. Also that a dilution of 1⁄1000 formaldehyde is germicidal to all bacteria although it has very little deleterious effects on man.
Both nicotine and its derivative pyridine, along with the tarry oils produced from tobacco distillation, are strong and effective disinfectants; and formaldehyde, one of the most powerful germicides known, is produced in this process. Trillat, Annales de l’Institut Pasteur (Paris), Vol. 19, p. 722, shows that 100 grams of pipe tobacco yields 0.063 grams and 100 grams of cigar yields 0.118 grams of formaldehyde. Additionally, a dilution of 1⁄1000 formaldehyde is germicidal to all bacteria, although it has very few harmful effects on humans.
As far as can be ascertained there has not been very much investigation for the purpose of demonstrating the actual results of clinical experience regarding the antiseptic qualities of tobacco in the case of smokers, but facts, so far as they have been recorded, bear out the experiments. Rideal Disinfection and Preservation of Food (London and New York, 1903) states that the investigations of Tessarini showed that tobacco smoke passed over the organisms of human cholera and pneumonia killed them in from 10 to 30 minutes. He also states[Pg 200] that the Cigar Manufacturers Association of Hamburg reported that in the cholera epidemic of 1892 in that city, only 8 out of 5,000 employes in the cigar factories there were attacked by the disease and that, there were only 4 deaths. Professor Wenck, of the Imperial Institute of Berlin, has published an account of this cholera epidemic (see Laucett francaise, Paris, 1912, p. 1425). His conclusions favor the preservative action of tobacco. It was clearly shown that slightly moist tobacco was a fatal germicide for the cholera bacillus; all microbes die in it in 24 hours. The examination of cigars made in Hamburg during the epidemic showed that they were absolutely free from bacilli. Wenck asserts also that cholera microbes die in ½ hour, 1 hour, and 2 hours after having been placed in contact with the smoke of Brazilian, Sumatran and Havana tobacco. The fumes of tobacco will besides kill in five minutes the cholera microbes obtained from saliva. Fullerton already quoted examined a small number of mouths (74) in the Johns Hopkins Hospital at Baltimore. Of those who did not use tobacco in any form a larger percentage showed signs of dental caries and decay of an advanced stage than in the case of tobacco users. Similarly in the case of women who never used tobacco; and, although there was a[Pg 201] much greater care and cleansing of the teeth, yet the percentage of decay and disease was higher than in the case of men using tobacco. Fullerton says, “The smoking or chewing of tobacco is decidedly germicidal. Chewing, by exercising the teeth, helps nutrition and eliminates pathological agencies both by destroying them in situ and by removing them in the expectoration.” Rideal (already quoted) mentions that Dr. Burney, the senior medical officer of Greenwich Hospital, London, asserts that the tobacco smoking inmates of that institution enjoyed comparative immunity from epidemics.
As far as we can tell, there hasn't been much research aimed at showing the actual outcomes of clinical experiences with the antiseptic properties of tobacco among smokers. However, the facts that have been recorded support the experiments. Rideal Disinfection and Preservation of Food (London and New York, 1903) mentions that Tessarini's investigations found that tobacco smoke could kill human cholera and pneumonia bacteria within 10 to 30 minutes. He also states[Pg 200] that the Cigar Manufacturers Association of Hamburg reported that during the cholera epidemic of 1892, only 8 out of 5,000 employees in the city's cigar factories contracted the disease, leading to just 4 deaths. Professor Wenck from the Imperial Institute of Berlin published an account of this cholera epidemic (see Laucett francaise, Paris, 1912, p. 1425). His findings support the preservative effects of tobacco. It was clearly demonstrated that slightly moist tobacco acted as a lethal germicide for cholera bacteria; all microbes within it died in 24 hours. The analysis of cigars produced in Hamburg during the epidemic showed they were completely free of bacilli. Wenck also asserts that cholera bacteria die after ½ hour, 1 hour, and 2 hours of exposure to the smoke from Brazilian, Sumatran, and Havana tobacco. Moreover, tobacco fumes can kill cholera bacteria derived from saliva in just five minutes. Fullerton, previously mentioned, examined a small sample of 74 mouths at Johns Hopkins Hospital in Baltimore. Among those who did not use any form of tobacco, a larger percentage exhibited signs of dental cavities and advanced decay compared to tobacco users. The same was true for women who never used tobacco; despite having greater care and cleaning of their teeth, the rate of decay and disease was higher than in men who smoked. Fullerton states, “Smoking or chewing tobacco is definitely germicidal. Chewing, by exercising the teeth, aids nutrition and eliminates harmful agents both by destroying them in situ and by expelling them in saliva.” Rideal (previously quoted) notes that Dr. Burney, the senior medical officer at Greenwich Hospital in London, claims that the tobacco-smoking residents of that institution had a comparative immunity to epidemics.
From these opinions and examples it seems quite clear that whatever portions of the decomposition products of tobacco reach the mouth and mix with the saliva, or propagate themselves in the immediate surroundings of the smoker, are likely to have extremely good effects. It would be easy to multiply these opinions but there is no use laboring the argument. There is a matter, however, it will do no harm to mention here. Today it is being gradually recognized by the medical profession that the conditions which lead ultimately to gastric and intestinal ulcer including appendicitis are entirely due to infection. At the 1912 meeting of the British Medical Association this was clearly manifested and some of the leading[Pg 202] authorities in England pointed out the importance of the mouth as a focus of infection in such diseases. Now if this is so, it is at once apparent how important tobacco as a mouth disinfectant and germicide becomes; and it may incidentally throw some light (otherwise unexplained) on the fact constantly observed that in persons under 30 years old these diseases are far more common amongst women than in the case of men. The use of tobacco is not asserted as a reason, but it may be.
From these views and examples, it’s pretty clear that whatever parts of tobacco’s breakdown products reach the mouth and mix with saliva, or circulate around the smoker, are likely to have very positive effects. It would be easy to gather more of these opinions, but there’s no need to overemphasize the point. However, there’s one more thing worth mentioning here. Nowadays, the medical community is gradually recognizing that the conditions leading to gastric and intestinal ulcers, including appendicitis, are solely due to infection. At the 1912 meeting of the British Medical Association, this was clearly demonstrated, and some of the leading[Pg 202] authorities in England highlighted the mouth’s role as a focus of infection in these diseases. If that’s the case, it’s immediately obvious how important tobacco is as a mouth disinfectant and germicide; it might also shed some light (that’s otherwise unexplained) on the consistently observed fact that these diseases are much more common in women than in men under 30. The use of tobacco isn't claimed to be the reason, but it could be.
With regard to other beneficial effects—Clouston, Fullerton and Marvin, state that the moderate use of tobacco has a beneficial effect on the digestive system as in general it causes an increased flow of saliva and gastric juice which helps in the digestion of food; it also stimulates the muscles and mucous membrane of the stomach and intestines. The sedative effects of tobacco on the nerves is a preventative of nervous dyspepsia and is valuable for the promotion of good digestion.
Regarding other positive effects, Clouston, Fullerton, and Marvin say that moderate tobacco use can benefit the digestive system because it generally leads to increased saliva and gastric juice production, which aids in food digestion. It also stimulates the muscles and mucous membranes of the stomach and intestines. The calming effects of tobacco on the nerves help prevent nervous dyspepsia and are valuable for promoting good digestion.
While much has been written on the effects of excessive smoking on the nervous system little has been said of the good effects of moderate smoking. Every smoker realizes that the soothing effects of tobacco on the nerves is perhaps its most valuable property. Clouston’s opinion, already quoted (and none could be better), is[Pg 203] that “tobacco exercises a soothing influence when the nervous system is in anyway irritable; it tends to calm and continuous thinking.” Fullerton says, “It gives a composure and feeling of well-being which are beneficial to mind and body.” Of these facts there can be no doubt because they are matters of common daily observation and experience. Most smokers find a solace and quieting influence from their evening smoke after the worries of a troublesome day which no other agent can give them. The effect produced may be partly psychological but that does not matter. Indeed the strenuousness of life in the age in which we live seems to demand such a help and nothing appears to supply the want so efficiently, so pleasantly, and with less harm, than a quiet smoke. It puts the smoker at peace with himself and at peace with others. Bush found in his investigations on the mental effects of tobacco on college students that there was a temporary loss of ten per cent in mental efficiency in certain faculties of the mind. This is probably true enough though his results are not quite conclusive. On the other hand many men find that they can think more clearly and more consecutively when helped by a smoke. Indeed they smoke when they have a knotty problem to solve. The[Pg 204] point need not be argued; all smokers will agree with it.
While a lot has been written about the negative effects of excessive smoking on the nervous system, not much has been said about the positive effects of moderate smoking. Every smoker knows that the calming effects of tobacco on the nerves might be its most valuable quality. Clouston’s view, which has already been quoted (and none could be better), is[Pg 203] that “tobacco has a soothing influence when the nervous system is in any way irritable; it tends to calm and promote continuous thinking.” Fullerton says, “It provides a sense of composure and well-being that benefits both mind and body.” There’s no doubt about these facts, as they are common observations in daily life. Most smokers find comfort and a calming effect from their evening smoke after a stressful day, something that no other activity can provide. The effect might be partly psychological, but that doesn't really matter. In fact, the hectic nature of modern life seems to require such a remedy, and nothing seems to meet that need so effectively, so enjoyably, and with less harm than a quiet smoke. It brings the smoker peace with themselves and peace with others. Bush found in his studies on the mental effects of tobacco on college students that there was a temporary decline of ten percent in mental efficiency in certain areas of the mind. This is probably accurate, although his findings aren’t entirely conclusive. On the other hand, many men find that they can think more clearly and coherently when they smoke. In fact, they often smoke when faced with a difficult problem to solve. The[Pg 204] point doesn’t need to be debated; all smokers will agree with it.
Judged from a psychological standpoint the effects of tobacco are entirely favorable. To the sleepless, the worried, to him who is troubled in mind or vexed in spirit, the pipe or cigar is a never-failing remedy to soothe and cheer. It is the feeling of betterment which it engenders and the spirit of good will which tobacco creates that are responsible for its universal use by men differing widely in grade and condition of life as well as in mental caliber; it reaches the common springs which move humanity; its qualities are those which have made the pipe a symbol of peace and a bond of fellowship and union between man and man from Pole to Pole.
From a psychological perspective, tobacco has entirely positive effects. For those who can’t sleep, are anxious, or are troubled in mind or spirit, a pipe or cigar is a reliable way to relax and find comfort. It’s the sense of improvement it brings and the sense of goodwill that tobacco fosters that explain its widespread use among men of all backgrounds and mental capacities. It taps into the common emotions that connect humanity; its qualities have turned the pipe into a symbol of peace and a connection between people, from one end of the earth to the other.
From a general summing up of the opinions which have been quoted the question might finally be asked, “Is tobacco on the whole harmful or beneficial to its users?” The answer seems to be this: “Tobacco to the extent used on the average has some slight injurious effects and some slight beneficial effects on the physical system. It is an excellent preservative agent against contagious and infectious disease. Mentally its effects are overwhelmingly beneficial.” In every particular case a man must judge for himself, taking account of his [Pg 205]individual idiosyncrasies and conditions whether the use of tobacco is beneficial to him or otherwise.
From a general summary of the opinions that have been mentioned, one might finally ask, “Is tobacco, overall, harmful or beneficial to its users?” The answer seems to be: “Tobacco, in the average amount used, has some slight harmful effects and some slight beneficial effects on the body. It is an excellent preservative against contagious and infectious diseases. Mentally, its effects are predominantly beneficial.” In each specific case, an individual must decide for themselves, considering their [Pg 205]unique traits and circumstances, whether using tobacco is beneficial to them or not.
REFERENCES
REFERENCES
Laucet. London, 1906. Vol. I, p. 984. The germ-destroying properties of tobacco.
Laucet. London, 1906. Vol. I, p. 984. The germ-killing properties of tobacco.
Arnold, M. B. On the effects of the Exposure of Tobacco Smoke on the growth of pathogenic micro-organisms. Laucet. London, 1907. Vol. I, p. 1220.
Arnold, M.B. The Impact of Tobacco Smoke Exposure on the Growth of Harmful Microorganisms. Lancet. London, 1907. Vol. I, p. 1220.
Murray, J. C. Smoking; when injurious, when innocuous, when beneficial. London, 1871.
Murray, J.C. Smoking: when it's harmful, when it's harmless, when it's helpful. London, 1871.
Lezars, I. The use and abuse of Tobacco. Philadelphia, 1883.
Lezars, I. The Use and Abuse of Tobacco. Philadelphia, 1883.
CHAPTER XIX
MISCELLANEOUS
OTHER
Revenue, taxation, etc., in connection with tobacco. Free imports.
Diseases of tobacco. Tobacco flavors. Formulae.
Revenue, taxes, and other matters related to tobacco. Free imports.
Health concerns from tobacco. Tobacco flavors. Formulations.
NOTES
NOTES
The “per capita” consumption of tobacco in the U. S. has increased from 1.6 lbs. in 1863 to between 5 and 6 lbs. at the present time.
The "per person" consumption of tobacco in the U.S. has gone up from 1.6 lbs. in 1863 to between 5 and 6 lbs. today.
At the present time the United States collects about 70 million dollars annually from domestic taxation on manufactured tobacco; and, in addition, about 25 million in import duties. The actual total income from tobacco in 1912 was 96 million dollars. For the fiscal year ending June 30, 1913, tax was paid on the following “withdrawn for consumption”:
At the moment, the United States raises around 70 million dollars each year from domestic taxes on manufactured tobacco, plus about 25 million in import duties. The total income from tobacco in 1912 was 96 million dollars. For the fiscal year ending June 30, 1913, tax was paid on the following “withdrawn for consumption”:
Cigars weighing more than 3 lbs. per thousand, 7,699,037,543.
Cigars that weigh more than 3 lbs. per thousand total 7,699,037,543.
Cigars weighing less than 3 lbs. per thousand, 1,033,778,160.
Cigars that weigh less than 3 pounds per thousand, 1,033,778,160.
Cigarettes weighing more than 3 lbs. per thousand, 18,194,311.
Cigarettes that weigh over 3 lbs. per thousand, 18,194,311.
Cigarettes weighing less than 3 lbs. per thousand, 14,276,771,160.
Cigarettes weighing less than 3 lbs. per thousand: 14,276,771,160.
Snuff, lbs., 33,209,488.
Snuff, weight: 33,209,488 lbs.
Tobacco, chewing and smoking, lbs., 401,362,620.
Tobacco, both chewing and smoking, lbs., 401,362,620.
In France, Spain, Austria, Italy and other countries the government has a monopoly over the manufacture and sale of tobacco products.[Pg 210] Purchase of leaf in the U. S. is made through government agents.
In France, Spain, Austria, Italy, and other countries, the government controls the production and sale of tobacco products.[Pg 210] In the U.S., purchasing tobacco leaves is done through government agents.
The quantities of tobacco which may be imported “free of duty” into European countries is as follows:
The amounts of tobacco that can be imported "duty-free" into European countries are as follows:
Austro-Hungary—12 cigars, 35 grams tobacco.
Austro-Hungary—12 cigars, 35g tobacco.
Belgium-None.
Belgium - None.
Bulgaria—50 cigars, 50 cigarettes, 50 grams tobacco.
Bulgaria—50 cigars, 50 cigarettes, 50 grams of tobacco.
Denmark—None.
Denmark—Nope.
Egypt—25 cigars, 100 cigarettes, 200 grams tobacco.
Egypt—25 cigars, 100 cigarettes, 200 grams of tobacco.
France—80 cigars, 300 cigarettes.
France—80 cigars, 300 smokes.
Germany—Enough for immediate use.
Germany—Sufficient for immediate use.
Great Britain—12 cigars, 20 cigarettes.
UK—12 cigars, 20 cigarettes.
Holland—None.
Holland—Nope.
Italy—6 cigars, 15 cigarettes.
Italy—6 cigars, 15 smokes.
Norway—100 cigars.
Norway—100 cigars.
Portugal—None.
Portugal—N/A.
Russia—100 cigars, 100 cigarettes, 100 grams tobacco.
Russia—100 cigars, 100 cigarettes, 100 grams of tobacco.
Spain—None.
Spain—N/A.
Sweden—None.
Sweden—Zero.
Turkey—None.
Turkey—None.
In U. S. 50 cigars and 300 cigarettes may be imported free.
In the U.S., you can import 50 cigars and 300 cigarettes without any charges.
[Pg 211]Small variations in the cost of manufacture (including the cost of leaf), which do not exceed 10%, are usually borne by the manufacturer, and do not affect the price to the consumer. But increase in taxation, either internal revenue or tariff, usually occasions a diminution in consumption as it invariably increases the cost.
[Pg 211]Small changes in manufacturing costs (including the cost of materials), which are under 10%, are usually handled by the manufacturer and don't impact the price for the consumer. However, an increase in taxes, whether it's internal revenue or tariffs, typically leads to a drop in consumption since it always raises costs.
The diseases of tobacco due to insect pests, etc.
The diseases caused by tobacco pests and other factors.
Tobacco, from the seed bed to the storage of the manufactured products, is subject to attack by insects, etc., and vigilance must at all times be exercised to keep it free from such harmful influences.
Tobacco, from the seedbed to the storage of the finished products, is vulnerable to insect attacks and other threats, so constant vigilance is necessary to protect it from these harmful factors.
Only a few of the principal agencies attacking tobacco will be mentioned here as the subject is of more interest to the specialist than to the smoker. The growing plant is particularly subject to Cut-worm disease and Horn-worm disease. Cut-worms are the larvae of several species of moths. They injure the young, tender plant and feed on the leaves. Horn-worms are the larvae of the Sphinx Moth. 2 or 3 will ruin a plant in one day.
Only a few of the main organizations fighting against tobacco will be mentioned here, as this topic is more relevant to specialists than to smokers. The growing plant is especially vulnerable to cutworm disease and hornworm disease. Cutworms are the larvae of several moth species. They damage the young, tender plants and feed on the leaves. Hornworms are the larvae of the sphinx moth; 2 or 3 of them can destroy a plant in just one day.
Stored tobacco is subject to many diseases. Bud caterpillars, the leaf-miner or split-worm[Pg 212] and the Tobacco flea beetle are minute beetles which attack it. Mosaic disease, Frog-eye or Leaf-spot are probably bacterial diseases.
Stored tobacco is prone to various diseases. Bud caterpillars, the leaf-miner, or split-worm[Pg 212] and the Tobacco flea beetle are tiny beetles that infest it. Mosaic disease, Frog-eye, or Leaf-spot are likely caused by bacteria.
In addition, tobacco, particularly during the curing process, is subject to pole-burn, pole-sweat, or house-burn, stem-rot, white-vein, and various forms of mould, all these being probably due to bacteria.
In addition, tobacco, especially during the curing process, can be affected by pole-burn, pole-sweat, house-burn, stem-rot, white-vein, and different types of mold, all likely caused by bacteria.
For additional information see:
For more info, see:
U. S. Dept. of Agriculture. Farmers’ Bulletin, 120.
USDA Farmers' Bulletin, 120.
Howard, L. O. The principal insects affecting the tobacco plant. Washington, D. C., 1900.
Howard, L. O. The main insects that impact the tobacco plant. Washington, D. C., 1900.
U. S. Dept. of Agriculture. Bureau of Entomology. Bulletin 65.
USDA. Bureau of Entomology. Bulletin 65.
Speckled or spotted cigars
Speckled or spotted cigars
Many smokers of cigars have the idea that there is some special virtue in a cigar that shows specks or spots of discoloration in the leaf. As a matter of fact such spots have nothing whatever to do with the quality of the tobacco. The occurrence of such spots is accounted for differently. Some say the spots are due to certain bacteria which attack the leaf either when growing or fermenting and this most probably is the correct view. Others say that the spots are due to rain drops which,[Pg 213] sprinkled on the leaves, act as lenses and concentrate the rays of the sun, thus causing a burning of the leaf in such spots. Some think the spots are caused by a worm. On account of the prejudice of smokers for speckled cigars dealers have been known to produce this appearance in the leaf artificially. There are different methods although resort is not often had at the present time to this practice as the belief in this sign is no longer as prevalent as formerly. The following are examples of such cigar speckling preparation, the chief ingredient being some active oxidizing agent:
Many cigar smokers believe there’s something special about a cigar that has specks or spots of discoloration on the leaf. In reality, these spots have nothing to do with the quality of the tobacco. They happen for different reasons. Some people say the spots result from certain bacteria that attack the leaf while it's growing or fermenting, and this is likely the most accurate explanation. Others believe the spots occur from raindrops that, [Pg 213] when sprinkled on the leaves, act like lenses and focus the sun's rays, which then burn the leaf in those spots. Some think the spots come from a worm. Because many smokers prefer speckled cigars, some dealers have been known to artificially create this appearance in the leaf. There are various methods for doing this, although it's not as common today since the belief in this characteristic isn't as strong as it used to be. Here are some examples of the processes used to create cigar speckling, with the main ingredient being some active oxidizing agent:
Cigar speckling fluid:
Cigar shimmering liquid:
(Method 1.) Powdered Ammonium Carbonate and a concentrated solution of (H2O2).
(Method 1.) Powdered Ammonium Carbonate and a concentrated solution of (H2O2).
Dissolve one part of the Ammonium Carbonate in 25 parts of the (H2O2). Touch the cigar with this in spots with the end of a pointed stick. This gives the appearance of speckled Sumatran leaf.
Dissolve one part of Ammonium Carbonate in 25 parts of (H2O2). Use the end of a pointed stick to dab this onto the cigar in spots. This will create the look of speckled Sumatran leaf.
(Method 2.) The following method is said to be used by a large firm:
(Method 2.) The following method is said to be used by a large company:
Sodium Carbonate—3 parts.
Chlorinated Lime—1 part.
Hot Water—8 parts.
Sodium Carbonate—3 parts.
Chlorinated Lime—1 part.
Hot Water—8 parts.
Dissolve the washing soda in the hot water, add the chlorinated lime, and heat to the boiling[Pg 214] point. When cool decant and cork tightly. This is sprinkled over the tobacco.—From American Druggist, Vol. 83, p. 328.
Dissolve the washing soda in hot water, add the chlorinated lime, and heat it to a boil[Pg 214]. Once it cools, pour it off and seal it tightly. This is sprinkled over the tobacco.—From American Druggist, Vol. 83, p. 328.
Specks are sometimes caused by fluids used to destroy insects which attack the cigar after manufacture.
Specks are sometimes caused by fluids used to kill insects that attack the cigar after it's made.
Tobacco flavoring essences
Tobacco flavoring extracts
In the chapter treating of the manufacture of smoking and chewing tobacco it was stated that the tobacco leaf was often treated by certain flavoring essences. The following are quoted as examples of such essences:
In the chapter about making smoking and chewing tobacco, it was mentioned that the tobacco leaf is often processed with various flavoring essences. The following are listed as examples of these essences:
Cascarilla Bark—1 ounce.
Fluid Extract Valerian—1 ounce.
Tonka Bean—2 drams.
English Rum—3 ounces.
—From Pharmaceutical Era, V. 21, 1899, p. 252.
Cascarilla Bark—1 ounce.
Fluid Extract Valerian—1 ounce.
Tonka Bean—2 drams.
English Rum—3 ounces.
—From Pharmaceutical Era, Vol. 21, 1899, p. 252.
The following essences are said to be used in France and Germany:
The following essences are said to be used in France and Germany:
(1) For every 1,000 kilos. of tobacco take 4 kilos. of purified potash; 5 kilos. table salt; 10 kilos. canella water; 10 kilos. rose water; 5 kilos. melilotte water; 2.8 grams tonka bean; pulverized. Color the whole with 4 grams English red. Add when the tobacco is cut up.
(1) For every 1,000 kilos of tobacco, use 4 kilos of purified potash, 5 kilos of table salt, 10 kilos of canella water, 10 kilos of rose water, 5 kilos of melilotte water, and 2.8 grams of pulverized tonka bean. Color everything with 4 grams of English red. Add this mixture when the tobacco is chopped up.
(2) 12 kilos. soda; 4 kilos. salts of tartar; 10 kilos. canella water; 10 kilos. rose water; 5[Pg 215] kilos. melilotte water; 2.8 grams tonka bean; 4 kilos. simple syrup; 5 kilos. French brandy; 6 kilos. red sandal wood.—From Pharmaceutical Era, V. 24, p. 67.
(2) 12 kilos of soda; 4 kilos of cream of tartar; 10 kilos of cinnamon water; 10 kilos of rose water; 5[Pg 215] kilos of sweet clover water; 2.8 grams of tonka bean; 4 kilos of simple syrup; 5 kilos of French brandy; 6 kilos of red sandalwood.—From Pharmaceutical Era, V. 24, p. 67.
Cigar Flavors
Cigar Flavors
Although the best cigars are made from the natural leaf and depend solely on its flavor and aroma, in the inferior article manufacturers sometimes resort to flavoring fluids.
Although the best cigars are made from natural leaf and rely entirely on its flavor and aroma, manufacturers of lower quality cigars sometimes use flavoring liquids.
The following examples of cigar flavoring fluid formulae are taken from the Pharmaceutical Era, V. 24, p. 455:
The examples of cigar flavoring fluid formulas below come from the Pharmaceutical Era, Vol. 24, p. 455:
Formula 1.
F1.
Extr. Vanilla—½ gal.
Alcohol and Jamaica Rum,—each, ½ gal.
Tinct. Valerian—8 ounces.
Carraway Seed—2 ounces.
English Valerian Root—2 ounces.
Bitter Orange Peel—2 ounces.
Tonka Bean—4 drams.
Myrrh—16 ounces.
Extr. Vanilla—½ gal.
Alcohol and Jamaica Rum,—each, ½ gal.
Tinct. Valerian—8 ounces.
Caraway Seed—2 ounces.
English Valerian Root—2 ounces.
Bitter Orange Peel—2 ounces.
Tonka Bean—4 drams.
Myrrh—16 ounces.
Formula 2.
Formula II.
Valerianic Acid—3 drams.
Acetic Ether—40 minims.
Butyric Ether—10 minims.
Alcohol—4 pints.
Valerianic Acid—3 drams.
Acetic Ether—40 minims.
Butyric Ether—10 minims.
Alcohol—4 pints.
Fluid Extr. Valerian—1 ounce.
Tinct. Tonka Bean—8 ounces.
Alcohol—enough to make 16 ounces.
Fluid Extract of Valerian—1 ounce.
Tincture of Tonka Bean—8 ounces.
Alcohol—enough to make 16 ounces.
Formula to improve the burning qualities of tobacco
Formula to improve the burning characteristics of tobacco
2 lbs. of Saltpeter.
Half gallon of Alcohol (100% proof).
1 gallon Port Wine.
9 gallons Lukewarm Water.
2 lbs. of Saltpeter.
Half a gallon of Alcohol (100% proof).
1 gallon of Port Wine.
9 gallons of Lukewarm Water.
Mix these ingredients thoroughly together, and add to every 100 lbs. weight of tobacco.
Mix these ingredients together thoroughly, and add to every 100 lbs. of tobacco.
Overcoming desire for tobacco
Overcoming the urge to smoke
(From The American Druggist, V. 51, 1908.)
(From The American Druggist, V. 51, 1908.)
Kalometzer (Bulletin Medical, 1907) states that rinsing mouth with solution of silver nitrate (¼ of 1% strength) will overcome the desire.
Kalometzer (Bulletin Medical, 1907) states that rinsing your mouth with a solution of silver nitrate (¼ of 1% strength) will eliminate the craving.
Preventing injurious action of nicotine
Stopping the harmful effects of nicotine
A process for the treatment of tobacco leaves preventing in a way injurious action of nicotine and of acrid empyreumatic acid products, was devised some years ago by Professor Gerold of Halle. His process is thus described: He employs for 8 kilograms of tobacco leaves[Pg 217] containing the usual percentage of nicotine a decoction prepared by boiling 15 grams of tannic acid with 1½ kilograms of water until the weight is reduced to one kilogram; then 30 grams of the essential oil of origanum vulgare are added, after which the decoction is immediately removed from the fire. Having stood for some minutes the mixture is filtered and allowed to cool to about 16° C., when the preparation is ready to be spread over the previously weighed tobacco. When the absorption of this mixture by the tobacco leaves is completed, they are subjected to slight pressure and moderate heat, after which they are ready for the manufacture of the various tobacco products.
A method for treating tobacco leaves that minimizes the harmful effects of nicotine and strong smoky acid products was developed a few years ago by Professor Gerold of Halle. His method is described as follows: He uses 8 kilograms of tobacco leaves[Pg 217] with the typical nicotine content and creates a solution by boiling 15 grams of tannic acid with 1½ kilograms of water until the weight is reduced to one kilogram. Next, he adds 30 grams of the essential oil of origanum vulgare, and then removes the mixture from the heat immediately. After sitting for a few minutes, the mixture is filtered and cooled to about 16° C., making it ready to be applied to the previously weighed tobacco. Once the tobacco leaves fully absorb this mixture, they are subjected to light pressure and moderate heat, after which they are ready for the production of various tobacco products.
Tannic acid is a well-known antidote for nicotine poisoning, and it is claimed for Gerold’s process that while the undistilled nicotine is neutralized in its toxic qualities only by the tannic acid, that this does not influence at all its peculiar odor nor most of its other characteristics.—From the Pharmaceutical Era, July 27, 1899, p. 144.
Tannic acid is a recognized antidote for nicotine poisoning, and it's claimed in Gerold’s process that while the undistilled nicotine's toxic qualities are only neutralized by the tannic acid, this does not affect its unique smell or most of its other properties.—From the Pharmaceutical Era, July 27, 1899, p. 144.
Havana cigars are generally better if smoked fresh; domestic cigars are better if allowed to age in the box several months before using.
Havana cigars are usually better when smoked fresh; domestic cigars improve if they're allowed to age in the box for several months before using.
[Pg 218]Remember that the phosphorus or sulphur of a match may spoil the flavor of a fine cigar. Be careful when you are lighting it to use only the edge of the match flame.
[Pg 218]Keep in mind that the phosphorus or sulfur on a match can ruin the taste of a quality cigar. When you light it, make sure to use just the edge of the match flame.
If the total number of cigars smoked annually in the United States were placed end to end they would encircle the whole world more than twenty times.
If you lined up all the cigars smoked each year in the United States, they would stretch around the entire globe more than twenty times.

INDEX
Air Curing of Leaf, 66
Amber, 162
American Production of Tobacco Other Than in U. S., 35
Analysis of Tobacco, 55
Asia, Production of Tobacco in, 31
Bacterial Diseases, Effects of Tobacco on, 197
Blends of Tobacco, How Made, 78
Briar Root, 158
Cancer and Tobacco, 180
Chemical Constituents of Tobacco, 55
Chewing Tobaccos, 128
Cigar and Cigarette Holders, Value of, 191
Cigar Business in U. S., 96
Cigar Flavors, 215
Cigar Leaf Tobacco Grown in U. S., 119
Cigarette Paper, 139
Cigarette Smoking, Criticisms of, 140
Cigarettes, American, 138
Cigarettes, Kinds of, 134
Cigarettes, Nicotine in Smoke of, 187
Cigarettes, Statistics, 133
Cigarettes, Turkish, 135
Cigarettes, Turkish, Manufactured in the U. S., 137
Cigars, Classification of, 104
Cigars, Composition of, 113
Cigars, Desirable Qualities of, 113
Cigars, Hand-made, 101
Cigars, History, 95
Cigars, Imported Kinds, in U. S., 114
Cigars, Machine-made, 103
Cigars, Manufactured in U. S., 117
Cigars, Speckles or Spots on, 212
[Pg 220]
Cigars, Statistics of Production and Consumption in U. S., 96
Cigars, Various Terms Regarding, 107
Coloring Meerschaum Pipes, 169
Consumption of Tobacco in U. S., 92
Cuban Cigar Leaf, 118
Cuban Tobacco, 35
Curing of Tobacco Leaf, 63
Digestive System and Use of Tobacco, 202
Diseases of Tobacco Leaf, 211
Disinfecting Action of Tobacco, 199
East Indian Tobacco, 38
Europe, Production of Tobacco, 32
Exportation of Tobacco from U. S., 91
Eyes and Use of Tobacco, 189
Fermentation of Tobacco, Action of Microbes, 81
Fermentation of Tobacco, Chemistry, 80
Fermentation of Tobacco Leaf, 79
Flavoring Essences, 214
Flue Curing of Leaf, 65
Hand-made Cigars, 101
Havana Cigars, 115
Holders for Cigars and Cigarettes, Value of, 191
Infection, Value of Tobacco Smoking Against, 197
Insects Affecting Tobacco Leaf, 211
Life Insurance and Tobacco, 188
Machine-made Cigars, 103
Manufactured Products of Tobacco in U. S., Statistics, 89
Meerschaum, 155
Microbes, Action in Fermentation of Tobacco, 81
Mind, Effects of Tobacco Smoking, 202
Mouthpiece of Pipes, Importance, 161
Nerves, Effect of Tobacco Smoking on, 202
Nicotine, 57
[Pg 221]
Nicotine, Amount in Tobacco Smoke, 183
Nicotine Contents of Tobaccos, 185
Nicotine Effects on Human System, 182
Open Fire Method of Curing Leaf, 65
Packing of Tobacco Leaf for Market, 69
Perique Tobacco, 50, 125
Philippine Cigars, 117
Pipe Smoking Tobaccos, Kinds of, 124
Pipe Smoking Tobacco, Qualities of, 123
Pipe Stem, Importance, 161
Pipes, Briar Root, Making of, 159
Pipes, Care of, 167
Pipes, History of, 151
Pipes, Importation of, Into U. S., 166
Pipes, Materials Used in Making, 154
Pipes, Meerschaum, Coloring, 169
Pipes, Meerschaum, Making of, 156
Pipes, Special Kinds of, 164
Plug Tobacco for Chewing, 128
Potash, Importance in Tobacco, 59
Psychological Effects of Tobacco Smoking, 202
Rehandling of Tobacco Leaf, 77
Revenue Derived from Tobacco, 209
Shade Grown Tobacco, 25
Smoke, Tobacco, Nicotine in, 187
Snuff, Manufacture, Statistics and Kinds, 145
Soils, Influence on Quality of Tobacco, 22
Suchsland’s Experiments With Bacteria on Tobacco Leaf, 81
Sumatran Cigar Leaf, 118
Teeth and Tobacco, 201
Terms Used in Cigar Trade, 107
Throat Diseases Due to Use of Tobacco, 179
Tobacco, Analysis of Contents, 55
Tobacco, Botanical Information, 15
[Pg 222]
Tobacco, Burning Qualities of, 216
Tobacco, Culture, 21
Tobacco, Denicotianized, 216
Tobacco, Effects of on Body, 173
Tobacco, Exportation from U. S., 91
Tobacco, Flavoring Essences, 214
Tobacco, Free Importation in Different Countries, 210
Tobacco, History, 13
Tobacco Leaf, Prices of, 71
Tobacco Manufacturing Industry, Capital, etc., 89
Tobacco Plant, Varieties, 16
Treatment of Leaf Before Manufacture, 82
Turkish Tobacco, 34
United States, Production of Tobacco, 41
Varieties, Botanical of, Tobacco Plant, 16
Varieties of American Grown Tobacco Leaf, 44, 46
Vulcanite, as Pipe Stem Material, 163
Warehouse System of Sale of Tobacco Leaf, 70
Water Pipes, 165
Yellowing of Tobacco Leaf, 27
Air Curing of Leaf, 66
Amber, 162
American Production of Tobacco Other Than in U. S., 35
Analysis of Tobacco, 55
Asia, Production of Tobacco in, 31
Bacterial Diseases, Effects of Tobacco on, 197
Blends of Tobacco, How Made, 78
Briar Root, 158
Cancer and Tobacco, 180
Chemical Constituents of Tobacco, 55
Chewing Tobaccos, 128
Cigar and Cigarette Holders, Value of, 191
Cigar Business in U. S., 96
Cigar Flavors, 215
Cigar Leaf Tobacco Grown in U. S., 119
Cigarette Paper, 139
Cigarette Smoking, Criticisms of, 140
Cigarettes, American, 138
Cigarettes, Kinds of, 134
Cigarettes, Nicotine in Smoke of, 187
Cigarettes, Statistics, 133
Cigarettes, Turkish, 135
Cigarettes, Turkish, Manufactured in the U. S., 137
Cigars, Classification of, 104
Cigars, Composition of, 113
Cigars, Desirable Qualities of, 113
Cigars, Hand-made, 101
Cigars, History, 95
Cigars, Imported Kinds, in U. S., 114
Cigars, Machine-made, 103
Cigars, Manufactured in U. S., 117
Cigars, Speckles or Spots on, 212
[Pg 220]
Cigars, Statistics of Production and Consumption in U. S., 96
Cigars, Various Terms Regarding, 107
Coloring Meerschaum Pipes, 169
Consumption of Tobacco in U. S., 92
Cuban Cigar Leaf, 118
Cuban Tobacco, 35
Curing of Tobacco Leaf, 63
Digestive System and Use of Tobacco, 202
Diseases of Tobacco Leaf, 211
Disinfecting Action of Tobacco, 199
East Indian Tobacco, 38
Europe, Production of Tobacco, 32
Exportation of Tobacco from U. S., 91
Eyes and Use of Tobacco, 189
Fermentation of Tobacco, Action of Microbes, 81
Fermentation of Tobacco, Chemistry, 80
Fermentation of Tobacco Leaf, 79
Flavoring Essences, 214
Flue Curing of Leaf, 65
Hand-made Cigars, 101
Havana Cigars, 115
Holders for Cigars and Cigarettes, Value of, 191
Infection, Value of Tobacco Smoking Against, 197
Insects Affecting Tobacco Leaf, 211
Life Insurance and Tobacco, 188
Machine-made Cigars, 103
Manufactured Products of Tobacco in U. S., Statistics, 89
Meerschaum, 155
Microbes, Action in Fermentation of Tobacco, 81
Mind, Effects of Tobacco Smoking, 202
Mouthpiece of Pipes, Importance, 161
Nerves, Effect of Tobacco Smoking on, 202
Nicotine, 57
[Pg 221]
Nicotine, Amount in Tobacco Smoke, 183
Nicotine Contents of Tobaccos, 185
Nicotine Effects on Human System, 182
Open Fire Method of Curing Leaf, 65
Packing of Tobacco Leaf for Market, 69
Perique Tobacco, 50, 125
Philippine Cigars, 117
Pipe Smoking Tobaccos, Kinds of, 124
Pipe Smoking Tobacco, Qualities of, 123
Pipe Stem, Importance, 161
Pipes, Briar Root, Making of, 159
Pipes, Care of, 167
Pipes, History of, 151
Pipes, Importation of, Into U. S., 166
Pipes, Materials Used in Making, 154
Pipes, Meerschaum, Coloring, 169
Pipes, Meerschaum, Making of, 156
Pipes, Special Kinds of, 164
Plug Tobacco for Chewing, 128
Potash, Importance in Tobacco, 59
Psychological Effects of Tobacco Smoking, 202
Rehandling of Tobacco Leaf, 77
Revenue Derived from Tobacco, 209
Shade Grown Tobacco, 25
Smoke, Tobacco, Nicotine in, 187
Snuff, Manufacture, Statistics and Kinds, 145
Soils, Influence on Quality of Tobacco, 22
Suchsland’s Experiments With Bacteria on Tobacco Leaf, 81
Sumatran Cigar Leaf, 118
Teeth and Tobacco, 201
Terms Used in Cigar Trade, 107
Throat Diseases Due to Use of Tobacco, 179
Tobacco, Analysis of Contents, 55
Tobacco, Botanical Information, 15
[Pg 222]
Tobacco, Burning Qualities of, 216
Tobacco, Culture, 21
Tobacco, Denicotianized, 216
Tobacco, Effects of on Body, 173
Tobacco, Exportation from U. S., 91
Tobacco, Flavoring Essences, 214
Tobacco, Free Importation in Different Countries, 210
Tobacco, History, 13
Tobacco Leaf, Prices of, 71
Tobacco Manufacturing Industry, Capital, etc., 89
Tobacco Plant, Varieties, 16
Treatment of Leaf Before Manufacture, 82
Turkish Tobacco, 34
United States, Production of Tobacco, 41
Varieties, Botanical of, Tobacco Plant, 16
Varieties of American Grown Tobacco Leaf, 44, 46
Vulcanite, as Pipe Stem Material, 163
Warehouse System of Sale of Tobacco Leaf, 70
Water Pipes, 165
Yellowing of Tobacco Leaf, 27
Transcriber’s Note:
Transcriber's Note:
Other than the corrections noted by hover information, spelling inconsistencies have been retained from the original.
Other than the corrections mentioned in the hover info, the spelling inconsistencies have been kept from the original.
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