This is a modern-English version of The Industrial Canal and Inner Harbor of New Orleans: History, Description and Economic Aspects of Giant Facility Created to Encourage Industrial Expansion and Develop Commerce, originally written by Dabney, Thomas Ewing. It has been thoroughly updated, including changes to sentence structure, words, spelling, and grammar—to ensure clarity for contemporary readers, while preserving the original spirit and nuance. If you click on a paragraph, you will see the original text that we modified, and you can toggle between the two versions.

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WILLIAM O. HUDSON<br> President, Board of Commissioners of Port of New Orleans
WILLIAM O. HUDSON
President, Board of Commissioners of Port of New Orleans
WILLIAM O. HUDSON
President, Board of Commissioners, Port of New Orleans

FOREWORD.

FOREWORD.

Oh the mind of man! Frail, untrustworthy, perishable—yet able to stand unlimited agony, cope with the greatest forces of Nature and build against a thousand years. Passion can blind it—yet it can read in infinity the difference between right and wrong. Alcohol can unsettle it—yet it can create a poem or a harmony or a philosophy that is immortal. A flower pot falling out of a window can destroy it—yet it can move mountains.

Oh, the mind of man! Weak, unreliable, temporary—yet capable of enduring endless pain, tackling the greatest forces of nature, and creating things that last for a thousand years. Passion can blind it—yet it can perceive the infinite distinctions between right and wrong. Alcohol can disturb it—yet it can produce a poem, a melody, or a philosophy that lasts forever. A flower pot falling out of a window can shatter it—yet it can move mountains.

If Man had a tool that was as frail as his mind, he would fear to use it. He would not trust himself on a plank so liable to crack. He would not venture into a boat so liable to go to pieces. He would not drive a tack with a hammer, the head of which is so liable to fly off.

If humans had a tool as fragile as their minds, they would be afraid to use it. They wouldn’t trust themselves on a board that could easily break. They wouldn’t risk getting into a boat that might fall apart. They wouldn’t hammer in a tack with a tool that could have its head pop off.

But Man knows that what the mind can conceive, that can he execute. So Man sits in his room and plans the things the world thought impossible. From the known he dares the unknown. He covers paper with figures, conjures forth a blue print, and sends an army of workmen against the forces of Nature. If his mind blundered, he would waste millions in money and perhaps destroy thousands of lives. But Man can trust his mind; fragile though it is, he knows it can bear the strain of any task put upon it.

But humans understand that whatever the mind can imagine, they can make happen. So they sit in their rooms and design things that the world deemed impossible. From what is known, they dare to explore the unknown. They fill pages with sketches, create blueprints, and send a team of workers to battle the forces of Nature. If their minds fail, they could waste millions of dollars and possibly endanger thousands of lives. But humans can rely on their minds; delicate as it may be, they know it can handle any challenge given to it.

All over the world there is the proof: in the heavens above, and in the waters under the earth. And nowhere has Man won a greater triumph over unspeakable odds than in New Orleans, in the dredging of a canal through buried forests 18,000 years old, the creation of an underground river, and the building of a lock that was thought impossible.

All around the world, there's proof: in the skies above and in the waters below. And nowhere has humanity achieved a greater victory against incredible challenges than in New Orleans, where they dredged a canal through forests buried for 18,000 years, created an underground river, and built a lock that many believed was impossible.


The Industrial Canal
and Inner Harbor of New Orleans

History, Description and Economic Aspects of Giant
Facility Created to Encourage Industrial
Expansion and Develop Commerce



By Thomas Ewing Dabney



Published by
Board of Commissioners of the Port of New Orleans
Second Port U. S. A.
May, 1921

(Copyright, 1921, by Thomas Ewing Dabney).



CONTENTS

FOREWORD 2
THE NEED RECOGNIZED FOR A CENTURY 5
NEW ORLEANS DECIDES TO BUILD CANAL 8
SMALL CANAL FIRST PLANNED 13
THE DIRT BEGINS TO FLY 17
CANAL PLANS EXPANDED 22
DIGGING THE DITCH 27
OVERWHELMING ENDORSEMENT BY NEW ORLEANS 31
SIPHON AND BRIDGES 36
THE REMARKABLE LOCK 40
NEW CHANNEL TO THE GULF 48
WHY GOVERNMENT SHOULD OPERATE CANAL 54
ECONOMIC ASPECT OF CANAL 60
CONSTRUCTION COSTS AND CONTRACTORS 66
OTHER PORT FACILITIES 70
COMPARISON OF DISTANCES BETWEEN NEW ORLEANS AND THE PRINCIPAL CITIES AND PORTS OF THE WORLD 78

THE NEED RECOGNIZED FOR A CENTURY.

THE NEED RECOGNIZED FOR A CENTURY.

There is a map in the possession of T. P. Thompson of New Orleans, who has a notable collection of books and documents on the early history of this city, dated March 1, 1827, and drawn by Captain W. T. Poussin, topographical engineer, showing the route of a proposed canal to connect the Mississippi River and Lake Pontchartrain, curiously near the site finally chosen for that great enterprise nearly a hundred years later.

There’s a map owned by T. P. Thompson from New Orleans, who has a notable collection of books and documents about the early history of the city. It’s dated March 1, 1827, and created by Captain W. T. Poussin, a topographical engineer. The map shows the route of a proposed canal to link the Mississippi River and Lake Pontchartrain, interestingly close to the location that was ultimately selected for that major project nearly a hundred years later.

New Orleans then was a mere huddle of buildings around Jackson Square; but with the purchase of the Louisiana territory from France, and the great influx of American enterprise that characterized the first quarter of the last century, development was working like yeast, and it was foreseen that New Orleans' future depended largely upon connecting the two waterways mentioned—the river, that drains the commerce of the Mississippi Valley, at our front door, and the lake, with its short-cut to the sea and the commerce of the world, at the back.

New Orleans was just a cluster of buildings around Jackson Square back then; but after the purchase of the Louisiana territory from France and the significant surge of American investment that marked the early part of the last century, development was booming. It was clear that New Orleans' future relied heavily on linking the two waterways mentioned—the river, which delivers the commerce of the Mississippi Valley right to our doorstep, and the lake, which offers a shortcut to the sea and global trade, in the back.

When the Carondelet canal, now known as the Old Basin Canal, was begun in 1794, the plan was to extend it to the river. It was also planned to connect the New Basin Canal, begun in 1833, with the Mississippi. This was, in fact, one of the big questions of the period. That the work was not put through was due more to the lack of machinery than of enterprise.

When the Carondelet Canal, now called the Old Basin Canal, was started in 1794, the plan was to extend it to the river. There was also a plan to connect the New Basin Canal, started in 1833, with the Mississippi. This was actually one of the major issues of the time. The fact that the project didn’t move forward was more because of a lack of machinery than a lack of ambition.

During the rest of the century, the proposal bobbed up at frequent intervals, and the small Lake Borgne canal was finally shoved through from the Mississippi to Lake Borgne, which is a bay of Lake Pontchartrain.

During the rest of the century, the proposal came up frequently, and the small Lake Borgne canal was finally pushed through from the Mississippi to Lake Borgne, which is a bay of Lake Pontchartrain.

The difference between these early proposals and the plan for the Industrial Canal and Inner Harbor that was finally adopted, is that the purpose in the former case was simply to develop a waterway for handling freight, whereas the object of New Orleans' great facility, now nearing completion, is to create industrial development.

The difference between these early proposals and the plan for the Industrial Canal and Inner Harbor that was eventually accepted is that the former aimed just to create a waterway for transporting freight, while the goal of New Orleans' significant facility, which is almost finished, is to foster industrial development.

Under the law of Louisiana, inherited from the Spanish and French regimes, river frontage can not be sold or leased to private enterprise. This law prevents port facilities being sewed up by selfish interests and insures a fair deal for all shipping lines, new ones as well as old, with a consequent development of foreign trade; and port officials, at harbors that are under private monopoly, would give a pretty if the Louisiana system could be established there.

Under Louisiana law, which comes from the Spanish and French systems, riverfront property cannot be sold or leased to private businesses. This law stops selfish interests from monopolizing port facilities and ensures a fair deal for all shipping companies, whether they are new or established, which in turn promotes the growth of foreign trade. Port officials at harbors that are privately controlled would wish the Louisiana system could be implemented there.

But there is no law, however good, that meets all conditions, and a number of private enterprises—warehouses and factories—have undoubtedly been kept out of New Orleans because they could not secure water frontage.

But there is no law, no matter how good, that covers every situation, and many private businesses—warehouses and factories—have definitely been kept out of New Orleans because they couldn’t get access to the waterfront.

An artificial waterway, capable of indefinite expansion, on whose banks private enterprise could buy or lease, for a long period of time, the land for erecting its buildings and plants, without putting in jeopardy the commercial development of the port; a waterway that would co-ordinate river, rail and maritime facilities most economically, and lend itself to the development of a "free port" when the United States finally adopts that requisite to a world commerce—that was the recognized need of New Orleans when the proposal for connecting the two waterways came to the fore in the opening years of the present century. The Progressive Union, later the Association of Commerce, took a leading part in the propaganda; it was assisted by other public bodies, and forward-looking men, who gradually wore away the opposition with which is received every attempt to do something that grandfather didn't do.

An artificial waterway, capable of endless expansion, along whose banks private businesses could buy or lease land for a long period to build their facilities, without jeopardizing the commercial growth of the port; a waterway that would integrate river, rail, and maritime services in the most efficient way, and be suitable for developing a "free port" when the United States eventually embraces that necessary step for global trade—that was what New Orleans needed when the idea of connecting the two waterways emerged in the early years of this century. The Progressive Union, later known as the Association of Commerce, played a key role in promoting this idea; it was supported by other public organizations and forward-thinking individuals who gradually wore down the resistance typically faced by any new initiative that went against what had been done in the past.

And on July 9, 1914, the legislature of Louisiana passed Act No. 244, authorizing the Commission Council of New Orleans to determine the site, and the Board of Port Commissioners of Louisiana, or Dock Board, as it is more commonly called, to build the Industrial Canal.

And on July 9, 1914, the Louisiana legislature passed Act No. 244, allowing the Commission Council of New Orleans to choose the location, and the Board of Port Commissioners of Louisiana, known as the Dock Board, to construct the Industrial Canal.

The act gave the board a right to expropriate all property necessary for the purpose, to build the "necessary locks, slips, laterals, basins and appurtenances * * * in aid of commerce," and to issue an unlimited amount in bonds "against the real estate and canal and locks and other improvements * * * to be paid out of the net receipts of said canal and appurtenances thereof, after the payment of operating expenses * * * (and) to fix charges for tolls in said canal."

The act allowed the board to take any property needed to build the "essential locks, slips, laterals, basins, and related structures Understood! Please provide the text you would like me to modernize. to support commerce," and to issue as many bonds as necessary "against the real estate, canal, locks, and other improvements Understood. Please provide the text you'd like me to modernize. to be paid from the net earnings of the canal and its related structures, after covering operating costs Understood! Please provide the text you'd like modernized. (and) to set fees for tolls on the canal."

This was submitted to a vote of the people at the regular election in November of that year, and became part of the constitution.

This was put to a vote by the people during the regular election in November of that year and became part of the constitution.

To avoid the complication of a second mortgage on the property, the Dock Board subsequently (ordinance of June 29, 1918) set a limit on the total bond issue. To enable the development that was then seen to be dimly possible, it set this limit high—at $25,000,000.

To avoid the hassle of taking out a second mortgage on the property, the Dock Board later (as per the ordinance of June 29, 1918) placed a cap on the total bond issue. To allow for the development that was thought to be barely possible, they set this limit high—at $25,000,000.

NEW ORLEANS DECIDES TO BUILD CANAL.

NEW ORLEANS DECIDES TO BUILD A CANAL.

The canal for which the legislature made provision in 1914 bears about the relation to the one that was finally built as the acorn does to the oak. It was to be a mere barge canal that might ultimately be enlarged to a ship canal. Its cost was estimated at $2,400,000, which was less than the cost of digging the New Basin canal nearly a century before, which was a great deal smaller and ran but half way between the lake and river.

The canal that the legislature planned in 1914 is like an acorn compared to the oak tree it eventually became. It was supposed to be just a barge canal that might eventually be expanded into a ship canal. The estimated cost was $2,400,000, which was less than what it took to dig the New Basin canal nearly a century earlier, which was much smaller and only ran halfway between the lake and the river.

The panic of the early days of the World War shoved even this modest plan to one side, and it was not until the next year that enthusiasm caught its second wind. Then the leading men and the press of the city put themselves behind the project once more.

The panic of the early days of World War I pushed even this small plan aside, and it wasn't until the following year that enthusiasm picked up again. Then the city's leaders and the press got behind the project once more.

As the New Orleans Item said, October 22, 1915, "the lack of that canal has already proven to have cost the city much in trade and developed industry."

As the New Orleans Item stated on October 22, 1915, "the absence of that canal has already shown to have cost the city a lot in trade and industrial growth."

Commenting on the "astonishing exhibition of intelligent public spirit" in New Orleans, the Chicago Tribune said that "no other city in or near the Mississippi Valley, including Chicago, has shown such an awakening to the possibilities and rearrangements that are following the cutting of the Panama canal. * * * The awakening started with the talk of the new canal."

Commenting on the "incredible display of civic pride" in New Orleans, the Chicago Tribune stated that "no other city in or near the Mississippi Valley, including Chicago, has shown such a heightened awareness of the opportunities and changes that are coming with the opening of the Panama Canal. Sure! Please provide the text you would like me to modernize. The awareness began with discussions about the new canal."

Other papers throughout the country made similar expressions.

Other newspapers across the country shared similar sentiments.

In 1915 the engineering firm of Ford, Bacon & Davis made a preliminary survey of conditions and how development would be affected by the canal. At about the same time the Illinois legislature voted to spend $5,000,000 to construct a deep water canal, giving Chicago water connection with the Mississippi River; and the New Orleans Item linked the two projects when it said, January 16, 1916, "the Illinois-Lake Michigan Canal and the New Orleans Industrial Canal are complementary links in a new system of waterways connecting the upper Valley through the Mississippi River and New Orleans with the Gulf and the Panama Canal. This system again gives the differential to the Valley cities in trade with the markets of the Orient, our own west coast, and South America."

In 1915, the engineering firm Ford, Bacon & Davis conducted a preliminary survey of the conditions and how the development would be influenced by the canal. Around the same time, the Illinois legislature voted to allocate $5,000,000 to build a deep water canal, which would connect Chicago's waterway to the Mississippi River. The New Orleans Item connected the two projects when it stated on January 16, 1916, "the Illinois-Lake Michigan Canal and the New Orleans Industrial Canal are complementary links in a new system of waterways connecting the upper Valley through the Mississippi River and New Orleans with the Gulf and the Panama Canal. This system once again gives the Valley cities an advantage in trade with markets in the Orient, our own west coast, and South America."

Commodore Ernest Lee Jahncke, president of the Association of Commerce, issued a statement to the press January 16, 1916, declaring that the prospect of the canal "brightened the whole business future of this city and the Mississippi Valley"; the New Orleans Real Estate Board and the Auction Exchange, in a joint meeting, urged its speedy building; and Governor Luther E. Hall, in a formal statement to the press January 16, 1916, gave his endorsement to the construction of the canal "long sought by many commercial interests of New Orleans," and said that work would probably begin in "three months."

Commodore Ernest Lee Jahncke, president of the Association of Commerce, issued a statement to the press on January 16, 1916, saying that the prospect of the canal "brightened the whole business future of this city and the Mississippi Valley." The New Orleans Real Estate Board and the Auction Exchange, in a joint meeting, called for its quick construction. Governor Luther E. Hall, in a formal statement to the press on January 16, 1916, supported the building of the canal "long sought by many commercial interests of New Orleans," and mentioned that work would likely start in "three months."

In August, 1916, the governor dismissed the Dock Board and appointed a new one.

In August 1916, the governor fired the Dock Board and appointed a new one.

In the confusion attending the reorganization the canal project was again dropped. The New Orleans American, on August 28, 1916, attempted to revive it, but the effort fell flat, and the plan laid on ice until 1918.

In the chaos of the reorganization, the canal project was put on hold once more. The New Orleans American, on August 28, 1916, tried to bring it back to life, but the effort didn't gain any traction, and the plan was shelved until 1918.

America had in the meantime thrown its hat into the ring, and the cry was going up for ships, more ships, and still more ships. National patriotism succeeded where civic effort had failed. New Orleans brought out its Industrial Canal project to help the country build the famous "bridge of boats."

America had, in the meantime, joined the competition, and there was a growing demand for ships, more ships, and even more ships. National pride succeeded where local efforts had failed. New Orleans launched its Industrial Canal project to assist the country in constructing the famous "bridge of boats."

But this new phase of the plan was far from the canal that was finally built. In fact, the accomplishment of this project has shown a remarkable development with the passing years, reminding one of the growth of the trivial hopes of the boy into the mighty achievement of the man.

But this new phase of the plan was far from the canal that was actually built. In fact, the success of this project has demonstrated significant progress over the years, making one think of how the minor dreams of a boy evolved into the great accomplishments of a man.

Ships could not be built on the Mississippi River. The twenty-foot range in the water level would require the ways to make a long slope into the current, a work of prohibitive expense, and as nearly impossible from an engineering standpoint as anything can be.

Ships couldn't be built on the Mississippi River. The twenty-foot fluctuation in water level would necessitate the construction of a long slope into the current, which would be prohibitively expensive and nearly impossible from an engineering perspective.

Early in 1918 a committee of representative Orleanians began to study the situation. This was known as the City Shipbuilding Committee. It comprised Mayor Behrman, O. S. Morris, president of the Association of Commerce; Walter Parker, manager of that body; Arthur McGuirk, special counsel of the Dock Board; R. S. Hecht, president of the Hibernia Bank; Dr. Paul H. Saunders, president of the Canal-Commercial Bank; J. D. O'Keefe, vice-president of the Whitney-Central Bank; J. K. Newman, financier; G. G. Earl, superintendent of the Sewerage and Water Board; Hampton Reynolds, contractor; D. D. Moore, James M. Thompson and J. Walker Ross, of the Times-Picayune, Item and States, respectively.

Early in 1918, a group of representatives from New Orleans started looking into the situation. This group was called the City Shipbuilding Committee. It included Mayor Behrman, O. S. Morris, president of the Association of Commerce; Walter Parker, the manager of that organization; Arthur McGuirk, special counsel for the Dock Board; R. S. Hecht, president of Hibernia Bank; Dr. Paul H. Saunders, president of Canal-Commercial Bank; J. D. O'Keefe, vice-president of Whitney-Central Bank; J. K. Newman, a financier; G. G. Earl, superintendent of the Sewerage and Water Board; Hampton Reynolds, a contractor; and D. D. Moore, James M. Thompson, and J. Walker Ross, from the Times-Picayune, Item, and States, respectively.

On February 10, 1918, this committee laid the plans for an industrial basin, connected with the river by a lock, and ultimately to be connected with the lake by a small barge canal. Ships could be built on the banks of this basin, the water in which would have a fixed level.

On February 10, 1918, this committee outlined the plans for an industrial basin, linked to the river by a lock, and eventually connected to the lake by a small barge canal. Ships could be constructed along the banks of this basin, which would maintain a consistent water level.

Mr. Hecht, and Arthur McGuirk, special counsel of the Dock Board, devised the plan by which the project could be financed. The Dock Board would issue long-term bonds, and build the necessary levees with the material excavated from the canal.

Mr. Hecht and Arthur McGuirk, special counsel for the Dock Board, came up with the plan to finance the project. The Dock Board would issue long-term bonds and construct the necessary levees using the material dug up from the canal.

The committee's formal statement summarized the public need of this facility as follows:

The committee's official statement summarized the community's need for this facility like this:

"1. It will provide practical, convenient and fixed-level water-front sites for ship and boat building and repair plants, for industries and commercial enterprises requiring water frontage.

"1. It will provide practical, convenient, and stable waterfront locations for ship and boat building and repair facilities, as well as for industries and commercial businesses that need access to the water."

"2. It will provide opportunities for all enterprises requiring particular facilities on water frontage to create such facilities.

"2. It will offer opportunities for all businesses needing specific facilities along the waterfront to develop those facilities."

"3. It will permit the complete co-ordination, in the City of New Orleans, of the traffic of the Mississippi River and its tributaries, of the Intracoastal Canal, the railroads and the sea, under the most convenient and satisfactory conditions.

"3. It will allow for the full coordination, in the City of New Orleans, of the traffic from the Mississippi River and its tributaries, the Intracoastal Canal, the railroads, and the sea, in the most convenient and satisfactory manner."

"4. In connection with the publicly-owned facilities on the river front, it will give New Orleans all the port and harbor advantages enjoyed by Amsterdam with its canal system, Rotterdam and Antwerp with their joint river and ocean facilities; Hamburg with its free port, and Liverpool with its capacity as a market deposit.

"4. With the public facilities along the riverfront, New Orleans will have all the port and harbor benefits that Amsterdam has with its canal system, Rotterdam and Antwerp with their combined river and ocean facilities, Hamburg with its free port, and Liverpool with its ability to serve as a market deposit."

"5. It will give New Orleans a fixed-level, well protected harbor.

"5. It will provide New Orleans with a stable, well-protected harbor."

"6. It will serve the purposes of the Intracoastal Canal and increase the benefits to accrue to New Orleans from that canal.

"6. It will support the goals of the Intracoastal Canal and enhance the benefits that New Orleans will gain from it."

"7. In connection with revived commercial use of the inland waterways upon which the federal government is now determined, it will open the way for an easy solution of the problem of handling, housing and interchange of water-borne commerce, and of the development of facilities for the storage of commodities between the period of production and consumption.

"7. With the renewed commercial use of inland waterways that the federal government is now committed to, it will pave the way for a straightforward solution to the challenges of handling, housing, and exchanging water-borne trade, as well as developing facilities to store goods between production and consumption."

"8. It will prove an important facility in the equipment of New Orleans to meet the new competition the enlarged Erie Canal will create. The original Erie Canal harmed New Orleans because Mississippi River boat lines could not build their own terminal and housing facilities at New Orleans."

"8. It will be a crucial asset for New Orleans to handle the new competition created by the expanded Erie Canal. The original Erie Canal negatively impacted New Orleans because Mississippi River boat lines couldn't establish their own terminals and housing facilities there."

Board of Commissioners
W. A. KERNAGHAN
Vice-President
RENÉ CLERC
Secretary
Board of Commissioners
ALBERT MACKIE HUGH McCLOSKEY

COMMISSIONERS
Board of Commissioners of the Port of New Orleans

COMMISSIONERS
Board of Commissioners of the Port of New Orleans


This meeting made industrial history in New Orleans. The Hecht plan was studied by lawyers and financiers and declared feasible. Mr. Hecht summarized the confidence of the far-visioned men in the new New Orleans when he declared in a public interview: "I feel there is absolutely nothing to prevent the immediate realization of New Orleans' long dream of becoming a great industrial and commercial center and having great shipbuilding plants located within the city limits."

This meeting made industrial history in New Orleans. The Hecht plan was reviewed by lawyers and financial experts and deemed feasible. Mr. Hecht captured the optimism of the forward-thinking individuals in the new New Orleans when he stated in a public interview: "I truly believe there is nothing stopping us from finally making New Orleans' long-held dream of becoming a major industrial and commercial hub, with significant shipbuilding facilities located within the city limits."

And the Item said, in commenting on the undertaking (February 17, 1918): "Millions of dollars of capital will be ready to engage in shipbuilding in New Orleans the moment that piledrivers and steam shovels are set to work on the shiplock and navigation canal."

And the Item said, commenting on the project (February 17, 1918): "Millions of dollars in capital will be ready to invest in shipbuilding in New Orleans as soon as the pile drivers and steam shovels start working on the shiplock and navigation canal."

It was a time of great industrial excitement. Victory was at last in the grasp of New Orleans. The eyes of the country were on New Orleans. The cry was, "Full Speed Ahead!"

It was a time of huge industrial excitement. Victory was finally within reach for New Orleans. The whole country was watching New Orleans. The call was, "Full Speed Ahead!"

SMALL CANAL FIRST PLANNED.

Small canal initially planned.

The plan, at this time, was to have a lock-sill only 16 or 18 feet deep. This would be sufficient to allow empty ships to enter or leave the canal, but not loaded. The mere building of ships was thus the principal thought, despite the rhetoric on commercial and industrial possibilities. Perhaps the leaders who were beating the project into shape were themselves afraid to think in the millions necessary to do the work to which New Orleans finally dedicated itself; perhaps they realized that the figure would stagger the minds of the people and defeat the undertaking, if they were not gradually educated up to the mark.

The plan, at this point, was to have a lock-sill only 16 or 18 feet deep. This would be enough to let empty ships enter or leave the canal, but not loaded ones. The main focus was on building ships, despite all the talk about commercial and industrial opportunities. Maybe the leaders pushing the project forward were hesitant to consider the millions needed to complete the work that New Orleans ultimately committed to; perhaps they understood that the costs would overwhelm people and undermine the project if they weren’t gradually prepared for it.

Meeting on February 15, 1918, the Dock Board resolved unanimously to put the plan through, if it proved feasible. W. B. Thompson was president of the board; the other members were Dr. E. S. Kelly, Thomas J. Kelly, B. B. Hans and O. P. Geren. Later, E. E. Lafaye took Mr. Kelly's place on the board.

Meeting on February 15, 1918, the Dock Board decided unanimously to move forward with the plan if it was found to be doable. W. B. Thompson was the board president; the other members included Dr. E. S. Kelly, Thomas J. Kelly, B. B. Hans, and O. P. Geren. Later on, E. E. Lafaye replaced Mr. Kelly on the board.

The Public Belt Railroad board had in the meantime (February 13) voted to pay the Dock Board $50,000 a year; and the Levee Board (February 14) to give $125,000 a year. As the plans were increased, the Levee Board later increased its bit to $925,000.

The Public Belt Railroad board had meanwhile (February 13) agreed to pay the Dock Board $50,000 a year, and the Levee Board (February 14) decided to contribute $125,000 a year. As the plans expanded, the Levee Board later raised its offer to $925,000.

Mayor Behrman, Arthur McGuirk and R. S. Hecht laid the proposition before both bodies. Action was unanimous. Colonel J. D. Hill, speaking for the Belt Railroad Board, said: "I am glad that at last there has been outlined a plan which seemingly makes it possible to construct the canal. It will not only result in the eventual construction of a big fleet of ships, but will prepare the way for a tremendous industrial activity in other lines. The consensus has been that a navigation canal is needed to induce large manufacturers, importers and exporters to establish their factories and warehouses here. This project will be the opening wedge."

Mayor Behrman, Arthur McGuirk, and R. S. Hecht presented the proposal to both groups. The response was unanimous. Colonel J. D. Hill, representing the Belt Railroad Board, stated: "I'm pleased that we finally have a plan that seems feasible for building the canal. It will not only lead to the construction of a major fleet of ships but will also pave the way for significant industrial activity in other sectors. The general agreement has been that a navigation canal is necessary to attract large manufacturers, importers, and exporters to set up their factories and warehouses here. This project will be the key first step."

Members of the Public Belt Board voting, besides Colonel Hill and Mayor Behrman (ex-officio) were Ginder Abbott, Arthur Simpson, John H. Murphy, W. B. Bloomfield, Adam Lorch, George P. Thompson, Thomas F. Cunningham, Victor Lambou, Edgar B. Stern and Sam Segari.

Members of the Public Belt Board voting, in addition to Colonel Hill and Mayor Behrman (ex-officio), included Ginder Abbott, Arthur Simpson, John H. Murphy, W. B. Bloomfield, Adam Lorch, George P. Thompson, Thomas F. Cunningham, Victor Lambou, Edgar B. Stern, and Sam Segari.

Members of the Levee Board voting were: William McL. Fayssoux, president, Thomas Killeen, Thomas Smith, John F. Muller, James P. Williams, John P. Vezien.

Members of the Levee Board voting were: William McL. Fayssoux, president, Thomas Killeen, Thomas Smith, John F. Muller, James P. Williams, John P. Vezien.

W. B. Thompson, president, put the matter before the Dock Board. "The idea" he said, according to the minutes of the meeting of February 15, 1918, "had always received his approval, and he thought that the mayor would recall that in the preparation, he with the city attorney, had a very considerable part in framing the same, and he had taken an active interest in the matter; he had always been in favor of the Industrial Canal, and he believed in the possibility of development of New Orleans through this, as a terminus; and it was entirely logical that the Dock Board should do all that may lie within its power to bring about the successful consummation of this project; the only doubt in his mind being as to the feasibility of the project from the financial standpoint. It seems now, however, that a plan has been devised, through efforts of the mayor and Mr. Hecht, which gives every promise of success. The co-operation of the city on behalf of the Public Belt Railroad, and of the Levee Board, apparently removed the difficulties in respect to the financial end. The Dock Board welcomes the assistance and co-operation of the city and of the Levee Board, but inasmuch as these boards are merely contributing certain amounts per year, and whereas the Dock Board is the obligor in respect of the principal of the bond issue, it devolves upon the Dock Board to use great caution before committing itself to any particular plan in a matter which so vitally affects the credit of the Dock Board, the city of New Orleans and the Levee Board. President Thompson further stated that he unhesitatingly endorsed the project and that he was sure that every member of the board agreed, and the board would be glad to give prompt consideration to the particular plan in question and reach some conclusion which will insure the realization of this great project."

W. B. Thompson, president, presented the issue to the Dock Board. "This idea," he said, according to the minutes of the meeting on February 15, 1918, "has always had my support, and I believe the mayor remembers that I, along with the city attorney, played a significant role in developing it. I've been actively interested in this matter; I've always supported the Industrial Canal, and I see the potential for New Orleans to grow through it as a hub. It's completely logical for the Dock Board to do everything possible to ensure the success of this project; my only concern is its financial feasibility. However, it seems a plan has been created, thanks to the mayor and Mr. Hecht, which looks very promising. The city's cooperation regarding the Public Belt Railroad and the Levee Board has apparently resolved any financial issues. The Dock Board appreciates the support and collaboration from the city and the Levee Board, but since these boards are only contributing certain amounts each year, and the Dock Board is responsible for the principal of the bond issue, it’s important for the Dock Board to proceed cautiously before committing to any specific plan that significantly impacts the credit of the Dock Board, the city of New Orleans, and the Levee Board. President Thompson also expressed his full support for the project and was confident that every board member agreed, and the board would be eager to promptly consider the specific plan in question to ensure the realization of this major project."

To estimate the probable cost of the canal, Mayor Behrman appointed the following committee of engineers: W. J. Hardee, city engineer; A. F. Barclay, engineer of the Public Belt Railroad; George G. Earl, superintendent of the Sewerage & Water Board; C. T. Rayner, Jr., engineer of the Levee Board and Hampton Reynolds, contractor.

To estimate the likely cost of the canal, Mayor Behrman appointed the following committee of engineers: W. J. Hardee, city engineer; A. F. Barclay, engineer of the Public Belt Railroad; George G. Earl, superintendent of the Sewerage & Water Board; C. T. Rayner, Jr., engineer of the Levee Board; and Hampton Reynolds, contractor.

On February 22, the committee reported that, not counting real estate, a canal could be built for $2,626,876. This estimate called for a lock 600 feet long, 70 feet wide, and 18 feet deep, and a barge canal to the lake. The cost of constructing the lock was put at $1,370,660, and of digging the canal $1,256,216.

On February 22, the committee reported that, excluding real estate, a canal could be built for $2,626,876. This estimate included a lock that was 600 feet long, 70 feet wide, and 18 feet deep, along with a barge canal leading to the lake. The cost for constructing the lock was estimated at $1,370,660, and the cost for digging the canal was $1,256,216.

This report was first received by a special committee composed of Mayor Behrman, W. B. Thompson, Col. J. B. Hill, R. S. Hecht and Major W. McL. Fayssoux. This committee referred it to the Dock Board, which adopted it February 22.

This report was initially received by a special committee made up of Mayor Behrman, W. B. Thompson, Col. J. B. Hill, R. S. Hecht, and Major W. McL. Fayssoux. This committee passed it on to the Dock Board, which approved it on February 22.

Financial arrangements were completed at this same meeting. In order to have sufficient to pay for the land which would have to be expropriated for the canal, and to give some leeway, it was decided to issue bonds for $3,500,000, with an option of floating $1,000,000 more within 30 days. A financial syndicate, consisting of the Hibernia, Interstate and Whitney-Central banks of New Orleans, the William R. Compton Investment Company of St. Louis, and the Halsey, Stuart Company of Chicago, agreed to take the entire issue. The bonds were to run 40 years and begin to mature serially after 10 years. They were to bear 5 per cent interest, and to be sold at 95. They would be secured by a mortgage on the real estate of the canal site, and by the taxing powers of the state, for they were a recognized state obligation, as Arthur McGuirk, special counsel of the Dock Board, pointed out in his opinion of July 10, 1918.

Financial arrangements were finalized at this meeting. To have enough funds to purchase the land needed for the canal and to allow for some flexibility, it was decided to issue bonds for $3,500,000, with an option to float an additional $1,000,000 within 30 days. A financial group, made up of the Hibernia, Interstate, and Whitney-Central banks of New Orleans, the William R. Compton Investment Company of St. Louis, and the Halsey, Stuart Company of Chicago, agreed to take on the entire issue. The bonds were set to last for 40 years and start maturing serially after 10 years. They would have a 5 percent interest rate and be sold at 95. They would be secured by a mortgage on the real estate of the canal site and by the state's taxing powers, as they were recognized as a state obligation, as Arthur McGuirk, special counsel of the Dock Board, noted in his opinion on July 10, 1918.

He added: "I am likewise of opinion that said bonds are unaffected by any limitations upon the state debt, or upon the rate of taxation for public purposes; that the said bonds are entitled to be paid out of the general funds, or by the exercise of the power of taxation insofar as the revenues, funds or property preferentially pledged or mortgaged to secure said issue may fail, or be insufficient, to pay the same."

He added: "I also believe that these bonds are not affected by any restrictions on state debt or on the tax rate for public purposes; that these bonds should be paid from the general funds, or through the exercise of taxing power if the revenues, funds, or property specifically pledged or mortgaged to secure these bonds fall short or are insufficient to cover the payments."

The following sat with the Dock Board and its attorneys at the meeting of February 22: Mayor Behrman, J. D. Hill of the Public Belt Railroad, R. S. Hecht, president of the Hibernia Bank, J. D. O'Keefe, vice-president of the Whitney-Central Bank, C. G. Reeves, vice-president of the Interstate Bank, W. R. Compton of the Compton Investment Company, H. L. Stuart of Halsey, Stuart and Company, W. J. Hardee, city engineer, and Hampton Reynolds, contractor.

The following individuals were present with the Dock Board and its attorneys at the meeting on February 22: Mayor Behrman, J. D. Hill from the Public Belt Railroad, R. S. Hecht, president of the Hibernia Bank, J. D. O'Keefe, vice president of the Whitney-Central Bank, C. G. Reeves, vice president of the Interstate Bank, W. R. Compton from the Compton Investment Company, H. L. Stuart from Halsey, Stuart and Company, W. J. Hardee, the city engineer, and Hampton Reynolds, the contractor.

The selection of the site was left, by the state law, to the commission council. There were a number of possible routes, and the selection was made with the utmost secrecy to prevent real estate profiteering. At first the area bounded by France and Reynes streets was chosen. This was on February 28. On May 9, however, the site was changed to the area bounded by France and Lizardi streets, north from the Mississippi River to Florida Walk, thence to Lake Pontchartrain. This is a virtually uninhabited region in the Third District, through the old Ursulines tract. The site chosen for expropriation is five and a third miles long by 2,200 feet wide, 897 acres.

The site selection was, according to state law, up to the commission council. There were several possible routes, and the choice was made very discreetly to avoid real estate speculation. Initially, the area between France and Reynes streets was picked on February 28. However, on May 9, the location was changed to the area between France and Lizardi streets, extending north from the Mississippi River to Florida Walk and then to Lake Pontchartrain. This is a mostly uninhabited area in the Third District, through the old Ursulines tract. The selected site for expropriation measures five and a third miles long and 2,200 feet wide, totaling 897 acres.

For this land the Dock Board paid $1,493,532.24, which is at the rate of $1,665 an acre. The valuation was reached by expropriation proceedings.

For this land, the Dock Board paid $1,493,532.24, which comes to $1,665 per acre. The valuation was determined through expropriation proceedings.

In the meantime, Commodore Ernest Lee Jahncke had asked to be allotted the first site on the Industrial Canal, and Doullut & Williams for the second. Both were for shipyards. The Foundation Company, which was operating a number of shipyards in various parts of the country, sent an engineer here to see if it would be feasible for the concern to build a shipyard here.

In the meantime, Commodore Ernest Lee Jahncke had requested the first site on the Industrial Canal, and Doullut & Williams were interested in the second. Both were for shipyards. The Foundation Company, which was running several shipyards in different parts of the country, sent an engineer to assess if it would be practical for them to build a shipyard here.

Even before the piledrivers and dredges were on the job, the millions were being counted for investment in the city whose remarkable enterprise had won the admiration of the country.

Even before the piledrivers and dredges started working, millions were being counted for investment in the city whose impressive efforts had earned the admiration of the nation.

THE DIRT BEGINS TO FLY.

The dirt starts to fly.

Until the money for the bond issue should be available, the Hibernia Bank authorized the Dock Board to draw against it on open account. It only remained, then, to secure the authorization of the Capital Issues Committee of the Federal Reserve Board, which controlled all bond issues during the World War, to start the work. The grounds on which the authorization was requested summarize conditions that make possible a great industrial development in New Orleans, and will stand quoting. They are:

Until the funds for the bond issue become available, the Hibernia Bank allowed the Dock Board to withdraw against it on an open account. All that was left was to obtain approval from the Capital Issues Committee of the Federal Reserve Board, which regulated all bond issues during the World War, to begin the work. The reasons for requesting the authorization summarize the conditions that enable significant industrial development in New Orleans, and are worth citing. They are:

"(a) Semi-tropical conditions, which make it feasible to work every day and night in the year;

"(a) Semi-tropical conditions, which allow for working every day and night of the year;

"(b) Admirable housing conditions which render it feasible for labor to live under most sanitary conditions in houses closely proximate to both the plants and the city, with sewerage and water connections, and with street car transportation facilities to and from the plants and to and from the amusement centers of the city;

"(b) Great housing conditions that make it possible for workers to live in clean homes near both the factories and the city, with sewage and water connections, and with streetcar transportation options to and from the factories and the city's entertainment areas;

"(c) Ample labor supply and satisfactory labor conditions;

"(c) Enough available workers and good working conditions;

"(d) Proximity to timber, steel and coal sources of supply with all water as well as rail transportation facilities thereon;

"(d) Close to sources of timber, steel, and coal, along with all necessary water and rail transportation options;"

"(e) State control of the canal facilities and operation of the same, not for profit, but for the economical and expeditious development of shipbuilding."

"(e) State control of the canal facilities and their operation, not for profit, but for the efficient and swift development of shipbuilding."

Two shipyards were established on the canal. They poured millions of dollars into New Orleans. The tremendous tonnage built in the United States during the war, and the slump in foreign trade that followed the armistice, due to financial conditions abroad, have caused many shipyards throughout the United States to close down, among them one of these at New Orleans. The other one is now finishing its war contracts, and will be more or less inactive until the demands of the American Merchant Marine and business in general open up again. If they are not used for shipbuilding, they can be used for ship repairing or building barges. And it is obvious that the same conditions that made ship building an economic possibility, will encourage other industrial production, especially production that requires the co-ordination of river, rail and maritime facilities. The Canal means millions of new money to New Orleans, as its proponents said it would.

Two shipyards were set up on the canal. They invested millions into New Orleans. The massive amount of tonnage built in the U.S. during the war, along with the decline in foreign trade after the armistice due to financial issues abroad, led to many shipyards across the country shutting down, including one in New Orleans. The other is now wrapping up its war contracts and will be mostly inactive until the needs of the American Merchant Marine and general business pick up again. If they aren’t used for building ships, they can be utilized for ship repairs or constructing barges. It’s clear that the same conditions that made shipbuilding financially viable will boost other industrial production, especially processes that require the integration of river, rail, and maritime facilities. The Canal signifies millions of new dollars for New Orleans, just as its supporters claimed it would.

On March 12, the authorization of the Capital Issues Committee was given. On March 15, the George W. Goethals Company, Inc., was retained as consulting engineers on the big job. The services of this company were secured as much for its engineering skill, proven by its work on the Panama Canal, as for the prestige of its name. The Goethals Company, co-operating with the engineers of the Dock Board, which did the work, designed the famous lock and directed the entire job. George M. Wells, vice-president of the firm, was put in active charge of the work. General Goethals made occasional visits of supervision.

On March 12, the Capital Issues Committee gave its authorization. On March 15, the George W. Goethals Company, Inc. was hired as consulting engineers for the major project. This company's services were secured both for its engineering expertise, proven by its work on the Panama Canal, and for the reputation associated with its name. The Goethals Company, working alongside the engineers of the Dock Board who completed the project, designed the famous lock and oversaw the entire operation. George M. Wells, the firm's vice-president, was placed in charge of the work. General Goethals made occasional supervisory visits.

The dirt began to fly on June 6, 1918.

The dirt started flying on June 6, 1918.

Before coming to New Orleans to take up his work, Mr. Wells, acting upon instructions of the Dock Board, called at the office of the Foundation Company in New York, whose engineer had already studied the possibilities of establishing a shipyard on the canal, and guaranteed an outlet to the sea by the time its vessels should be finished.

Before arriving in New Orleans to start his job, Mr. Wells, following the Dock Board's instructions, visited the Foundation Company's office in New York. Their engineer had already looked into the potential of setting up a shipyard on the canal and ensured there would be a way to the sea by the time the vessels were completed.

The river end of the site chosen for the canal consisted of low and flat meadow land. There were a few houses helter-skeltered about, like blocks in a nursery, but the principal signs of human life were the cows that grazed where the grazing was good, and sought refuge from the noonday beams of the sun under the occasional oaks that had strayed out into the open and didn't know how to get back. The middle of the site—several miles in extent—was a gray cypress swamp, with five or six hundred trees to the acre, and always awash. The lake end was "trembling prairie" marsh land subject to tidal overflow and very soft.

The river end of the site chosen for the canal was made up of flat, low meadowland. There were a few houses scattered around like toys in a playroom, but the main signs of life were the cows that grazed in the good spots and took cover from the midday sun under the occasional oaks that were out in the open and didn't seem to know how to get back. The middle of the site—spanning several miles—was a gray cypress swamp, with five or six hundred trees per acre, and it was always flooded. The lake end was soft "trembling prairie" marshland that was prone to tidal overflow.

N. O. ARMY SUPPLY BASE
N. O. ARMY SUPPLY BASE
N.O. Army Supply Base
BUILDING LAKE ENTRANCE
BUILDING LAKE ENTRANCE
Lake Entrance Construction

With dredges, spades, mechanical excavators, piledrivers and dynamite the work opened.

With dredges, shovels, excavators, pile drivers, and dynamite, the work began.

A great force of men began to throw up by hand, the levees that were to serve as banks for the turning basin, the lock and other portions of the canal. This levee would keep the liquid material, dredged out, from running back into the excavation. The turning basin, 950 feet by 1,150 feet, was an expansion of the original industrial basin. Situated several hundred feet from the lock, its purpose is to enable ships entering the canal from the river, and passing through the lock, to turn in, as well as to furnish a site for the concentration of industries. The Foundation Company had in the meantime decided to establish a shipyard on this basin; its engineers were on the ground, and its material was rolling.

A large group of workers started building the levees by hand that would serve as banks for the turning basin, the lock, and other parts of the canal. These levees were designed to prevent the dredged material from flowing back into the excavation. The turning basin, measuring 950 feet by 1,150 feet, was an extension of the original industrial basin. Located a few hundred feet from the lock, its purpose is to allow ships entering the canal from the river and passing through the lock to turn around, as well as to provide a site for industrial concentration. Meanwhile, the Foundation Company decided to set up a shipyard in this basin; its engineers were on-site, and materials were on the way.

One dredge was sent around Lake Pontchartrain to commence boring in from that end. This could not be done on the river end. The Mississippi is too mighty a giant to risk such liberties. The 2,000-foot cut between the river and the lock would have to be done last of all, when the rest of the canal and the lock were finished, and the new levees that would protect the city against its overflow, were solidly set. But a few hundred feet from the turning basin, was Bayou Bienvenu, which runs into Lake Borgne, part of Lake Pontchartrain, and one of the refuges of Lafitte in the brave days when smuggling was more a sport of the plain people than it is now with European travel restricted to the wealthy. So through Bayou Bienvenu a small excavator was sent to cut a passage into the turning basin, to allow the mighty 22-inch dredges to get in and work outwards towards the lake and the lock site.

One dredge was sent around Lake Pontchartrain to start boring from that end. This couldn't be done at the river end. The Mississippi is too powerful to take such risks. The 2,000-foot cut between the river and the lock would have to be completed last, after the rest of the canal and the lock were finished, and the new levees to protect the city from flooding were securely in place. Just a few hundred feet from the turning basin was Bayou Bienvenu, which flows into Lake Borgne, part of Lake Pontchartrain, and one of Lafitte's hideouts in the bold days when smuggling was more of a pastime for common folks than it is now with European travel limited to the wealthy. So, a small excavator was sent through Bayou Bienvenu to create a passage into the turning basin, allowing the huge 22-inch dredges to enter and work outwards towards the lake and the lock site.

The problem was further complicated by the Florida Walk drainage system, which emptied into Bayou Bienvenu, and by the railway lines that crossed the site of the Canal.

The issue was made even more complicated by the Florida Walk drainage system, which drained into Bayou Bienvenu, and by the train tracks that ran through the Canal site.

These railways were the Southern Railway, at the lake end, the Louisville & Nashville, at the middle, and the Southern and Public Belt near the turning basin on Florida Walk. For them, the Dock Board had to build "run-around" tracks, to be used while their lines were cut to enable the dredging to be made and the bridges to be constructed.

These railways included the Southern Railway at the lake end, the Louisville & Nashville in the middle, and the Southern and Public Belt near the turning basin on Florida Walk. The Dock Board needed to build "run-around" tracks for them to use while their lines were interrupted for dredging and bridge construction.

For the drainage, the plans called for the construction of an inverted siphon passing under the Canal, a river under a river, so to speak. In the meantime, however, the drainage canal had to be blocked off with two cofferdams, to cut off the water from the city and the bayou, and enable the construction of the siphon between.

For the drainage, the plans included building an inverted siphon that would go under the Canal, essentially a river flowing beneath another river. In the meantime, though, the drainage canal needed to be sealed off with two cofferdams to prevent water from reaching the city and the bayou, allowing for the construction of the siphon in between.

Additional railroad tracks, too, had to be built to handle the immense volume of material needed for the work; roads had to be built for getting supplies on the job by truck; the trolley line had to be extended for the transportation of labor.

Additional railroad tracks also had to be constructed to manage the huge amount of materials required for the project; roads needed to be created for delivering supplies by truck; and the trolley line had to be extended to transport workers.

Week by week the labor gangs grew, as the men were able to find places in the attacking line of the industrial battle. Great excavators stalked over the land, pulling themselves along by their dippers which bit out chunks of earth as big as a cart when they "took a-hold"; the smack of pile drivers, the thump of dynamite, and the whistle of dredges filled the air. Buildings sprouted like mushrooms; in the meadow, half a mile from the nearest water, the shipyard of the Foundation Company began to take form. It was the plan to finish the Canal by January, 1920.

Week by week, the work crews expanded as the men found positions in the frontline of the industrial battle. Massive excavators moved across the land, dragging themselves along by their scoops, which cut out chunks of earth the size of a cart when they "hooked in"; the sound of pile drivers, the boom of dynamite, and the whistling of dredges filled the air. Buildings sprang up like mushrooms; in the meadow, half a mile from the nearest water source, the shipyard of the Foundation Company started to take shape. The goal was to complete the Canal by January 1920.

CANAL PLANS EXPANDED.

Canal plans updated.

Work in the meantime had begun on the commodity warehouse and wharf, another facility planned by the Dock Board to relieve the growing pains. Built on the Canal, but opening on the river, it was to perform the same service for general commodities as the Public Cotton Warehouse and the Public Grain Elevator did for those products. Though not a part of the canal plan, the construction of the warehouse at this point was part of the general scheme to concentrate industrial development on that waterway.

Work was underway on the commodity warehouse and wharf, another facility planned by the Dock Board to ease the growing pains. Built on the Canal but facing the river, it was set to provide the same service for general commodities as the Public Cotton Warehouse and the Public Grain Elevator did for their respective products. Although it wasn't part of the canal plan, building the warehouse at this location was part of the broader strategy to focus industrial development on that waterway.

Later, the Federal Government took over this work and gave New Orleans a $13,000,000 terminal, through which it handled army supplies. It is still using the three warehouses for storage purposes, but has leased the half-mile double-deck wharf to the Dock Board, which is devoting it to the general commerce of the port. In time, the Dock Board hopes to get at least one of the buildings.

Later on, the federal government took over this project and provided New Orleans with a $13 million terminal to manage military supplies. It is still using the three warehouses for storage, but has leased the half-mile double-deck wharf to the Dock Board, which is using it for general port commerce. Eventually, the Dock Board aims to acquire at least one of the buildings.

There can be no doubt but that the enterprise of New Orleans in building the Industrial Canal had a great deal to do with the government's determination to establish a depot at New Orleans.

There’s no doubt that New Orleans' project to build the Industrial Canal played a significant role in the government’s decision to set up a depot there.

On May 30, the news came out of Washington that the Doullut & Williams Shipbuilding Company had been awarded a $15,000,000 contract by the Emergency Fleet Corporation to build eight ships of 9,600 tons each. This was the largest shipbuilding contract that had been given the South. The Industrial Canal rendered it possible.

On May 30, news from Washington announced that the Doullut & Williams Shipbuilding Company had received a $15,000,000 contract from the Emergency Fleet Corporation to build eight ships, each weighing 9,600 tons. This was the largest shipbuilding contract awarded to the South. The Industrial Canal made it possible.

The firm of Doullut & Williams had been engaged for fifteen years or so in the civil engineering and contracting business in New Orleans. Captain M. P. Doullut had built launches with his own hands when a young man, and dreamed of the time when he would have a yard capable of turning out ocean-going vessels. The Doullut & Williams Shipbuilding Company was organized April 25, 1918, with the following officers: M. P. Doullut, president; Paul Doullut, vice-president; W. Horace Williams, secretary-treasurer and general manager; L. H. Guerin, chief engineer; and James P. Ewin, assistant chief engineer.

The firm of Doullut & Williams had been in the civil engineering and contracting business in New Orleans for about fifteen years. Captain M. P. Doullut had built boats by hand when he was younger and dreamed of the day he would have a yard capable of producing ocean-going ships. The Doullut & Williams Shipbuilding Company was established on April 25, 1918, with the following officers: M. P. Doullut, president; Paul Doullut, vice-president; W. Horace Williams, secretary-treasurer and general manager; L. H. Guerin, chief engineer; and James P. Ewin, assistant chief engineer.

"I feel that New Orleans is on the eve of a very remarkable development" said Senator Ransdell of Louisiana in a telegram of congratulation, "and earnestly hope our people will continue to work together with energy and hearty accord until we have gone way over the top in shipbuilding and many other lines."

"I believe New Orleans is about to experience something truly extraordinary," said Senator Ransdell of Louisiana in a congratulatory telegram, "and I sincerely hope our people will keep working together with enthusiasm and unity until we surpass all expectations in shipbuilding and various other fields."

The expression "over the top" had not become the pest that it and other war-time weeds of rhetoric have subsequently proven. That was a time when one could still refer to a "drive" without causing a gnashing of teeth.

The phrase "over the top" hadn't turned into the annoyance that it and other war-time phrases later became. It was a time when you could still mention a "drive" without everyone getting upset.

Picking the site at the Lake Pontchartrain end of the canal, Doullut & Williams Shipbuilding Company began to erect its shipyard. The plant buildings were erected upon tall piling. As the dredges excavated the material from the cut, they deposited it on the site of the shipyard and raised the elevation several feet, so the buildings were only the usual height above the ground. Both sides of the Canal, it should be added, have been similarly raised by excavation material.

Choosing the location at the Lake Pontchartrain end of the canal, Doullut & Williams Shipbuilding Company started to construct its shipyard. The plant buildings were built on tall pilings. As the dredges dug up the material from the cut, they placed it on the shipyard site and increased the elevation by several feet, making the buildings just the usual height above the ground. Additionally, both sides of the canal have been similarly elevated using excavation material.

It was planned that the ships from the Doullut & Williams yard should be sent out into the world through Lake Pontchartrain, which empties into the Gulf of Mexico. There was ample water in the lake, without dredging, to accommodate unloaded ships of this size.

It was planned that the ships from the Doullut & Williams yard would be sent out into the world via Lake Pontchartrain, which flows into the Gulf of Mexico. The lake had enough water, without needing to dredge, to handle unloaded ships of this size.

But the fact that ships 400 or so feet long and drawing, when loaded to capacity, 27 feet, were to be built at New Orleans, emphasized the belief of those directing the work of the Industrial Canal that the plan on which they were working was too small. An 18-foot canal would not meet the growing needs of New Orleans. Accordingly the Dock Board instructed the engineering department to expand the plans.

But the fact that ships around 400 feet long and drawing 27 feet when fully loaded were going to be built in New Orleans highlighted the belief of those in charge of the Industrial Canal project that their plan was too small. An 18-foot canal wouldn’t be enough to satisfy the increasing demands of New Orleans. So, the Dock Board directed the engineering department to revise the plans and make them larger.

By June 11, 1918, the plans had been revised to give a 25-foot channel. This would accommodate all but the largest ships that come to New Orleans. The cost of such a lock and canal, George M. Wells estimated, would be $6,000,000, or $2,500,000 more than the estimate for the original canal. The Levee Board promptly raised its ante to $250,000 to guarantee the interest.

By June 11, 1918, the plans had been updated to create a 25-foot channel. This would allow all but the largest ships to access New Orleans. George M. Wells estimated that the cost of this lock and canal would be $6,000,000, which is $2,500,000 more than the original estimate for the canal. The Levee Board quickly increased its contribution to $250,000 to secure the interest.

When the Dock Board floated the first bond issue of $3,500,000 in February, at 95, it reserved the option to issue another $1,000,000 of bonds within thirty days, at the same rate.

When the Dock Board issued its first bond for $3,500,000 in February, at 95, it kept the option to issue another $1,000,000 in bonds within thirty days, at the same rate.

For $1,500,000 of the new issue, the same syndicate of banks offered 97-1/2, or two and a half points higher than for the first; but for the other million, they held the board to the original rate of 95. President Thompson reported to the Dock Board June 11 that he considered these "very satisfactory terms." He added: "We were able to secure these better prices and conditions because the bond market is in a somewhat better condition now than it was when we made the original contract."

For $1,500,000 of the new issue, the same group of banks offered 97.5, which is two and a half points higher than the first; but for the other million, they kept the rate at the original 95. President Thompson reported to the Dock Board on June 11 that he found these "very satisfactory terms." He added, "We were able to get these better prices and conditions because the bond market is in somewhat better shape now than it was when we made the original contract."

The contract was accepted on that date, and application made to the Capital Issues Committee for the necessary permission. This was given in due time, though there was considerable opposition.

The contract was accepted on that date, and an application was submitted to the Capital Issues Committee for the required permission. This was granted in due time, although there was significant opposition.

The opposition, said President Thompson, at the Dock Board meeting of February 26, 1919, reviewing the development of the canal plans, "was inspired by vicious and spectacular attacks of certain private interests hostile to the canal project and to the port of New Orleans." Railroads, whose right of way crossed the Canal, were the principal propagandists. They realized that the Dock Board could not be required to build their bridges over the waterway, and although the Thompson board financed the work at the time, they knew that sooner or later would come a day of reckoning. The Hudson Board has since then taken steps to collect several million dollars from these roads.

The opposition, President Thompson said at the Dock Board meeting on February 26, 1919, while discussing the development of the canal plans, "was fueled by aggressive and dramatic attacks from certain private interests against the canal project and the port of New Orleans." Railroads, whose right of way crossed the canal, were the main promoters of this opposition. They understood that the Dock Board couldn't be forced to build their bridges over the waterway, and even though the Thompson board funded the work at the time, they knew that eventually, a reckoning would come. The Hudson Board has since taken steps to collect several million dollars from these railroads.

But why build a canal almost large enough, only? Why build a 25-foot lock when ships drawing 30-feet of water come to New Orleans? A lock cannot be enlarged, once it is completed—and the tendency of the times is towards larger ships. Why not make a capacity facility while they were about it?

But why build a canal that's only almost large enough? Why build a 25-foot lock when ships that draw 30 feet of water arrive in New Orleans? A lock can't be enlarged once it's finished—and ships are getting bigger these days. Why not create a facility with enough capacity while they were at it?

Lock Site, Driving Sheet Piling
LOCK SITE
Driving Sheet Piling
LOCK SITE
Driving Sheet Piling
Lock site, Dredges Entering
LOCK SITE
Dredges Entering
LOCK SITE
Dredges Arriving

These were questions the Dock Board asked itself, and on June 29, 1918, it decided to build the lock with a 30-foot depth over the sill at extreme low water, and make the canal 300 feet wide at the top, and 150 feet wide at the bottom.

These were questions the Dock Board considered, and on June 29, 1918, it decided to construct the lock with a 30-foot depth above the sill at low tide, making the canal 300 feet wide at the top and 150 feet wide at the bottom.

To do this, would cost about $1,000,000 more, it was estimated by George M. Wells of the Goethals company—a sum which the Dock Board thought would be realized from the rental-revenues of Doullut & Williams and the Foundation Company, without increasing the second bond issue.

To do this would cost about $1,000,000 more, estimated George M. Wells of the Goethals company—a sum that the Dock Board believed would be covered by the rental revenues from Doullut & Williams and the Foundation Company, without raising the second bond issue.

This is the Canal that was finally built—nearly 70 per cent larger than the one that was begun and about 100 per cent larger than the one originally planned, when the newspapers and forward-looking told the people that the lack of such a canal had cost New Orleans millions of dollars in development.

This is the Canal that was finally built—almost 70 percent larger than the one that was started and about 100 percent larger than the one originally planned, when the newspapers and visionaries told the public that not having such a canal had cost New Orleans millions in development.

DIGGING THE DITCH.

DIGGING THE TRENCH.

No rock-problem was encountered in dredging the canal. The cost was below what the engineers estimated it would be—less than thirty cents a cubic yard. But a novel situation did develop; a condition that would have sent the cost sky-rocketing if an Orleanian had not met the difficulty.

No rock problem came up while dredging the canal. The cost was lower than what the engineers had estimated—less than thirty cents per cubic yard. However, a new situation did arise; a circumstance that would have caused costs to soar if a local from New Orleans hadn't dealt with the issue.

Louisiana is what geologists call a region of subsidence. The gulf of Mexico formerly reached to where Cairo, Ill., now is. Washings from the land, during the slow-moving centuries, pushed the shoreline ever outward; the humus of decaying vegetation raised the ground surface still higher. This section of Louisiana, built by the silt of the Mississippi, was of course the most recent formation.

Louisiana is what geologists refer to as a subsiding area. The Gulf of Mexico once extended to the location now known as Cairo, Illinois. Over the centuries, erosion from the land gradually pushed the shoreline farther out; the decomposing plant matter raised the ground level even higher. This part of Louisiana, formed by the sediment of the Mississippi River, is the most recent geological formation.

Twenty thousand years ago, say the geologists, there were great forests where Louisiana now is. Among these mighty trees roamed the glyptodont; the 16-foot armadillo with a tail like the morning-star of the old crusaders, monstrously magnified; the giraffe camel; the titanothere; the Columbian elephant, about the size of a trolley car and with 15-foot tusks; the giant sloth which could look into a second-story window; here the saber-toothed tiger fought with the megatherium; mighty rhinoceroses sloshed their clumsy way, and huge and grotesque birds filled the air with their flappings.

Twenty thousand years ago, geologists say there were huge forests where Louisiana is today. Among these massive trees roamed the glyptodont, a 16-foot armadillo with a tail like the morning star of the old crusaders, ridiculously oversized; the giraffe camel; the titanothere; the Columbian elephant, about the size of a city trolley and with 15-foot tusks; the giant sloth that could look into a second-floor window; here the saber-toothed tiger battled the megatherium; massive rhinoceroses trudged around awkwardly, and enormous, oddly shaped birds filled the sky with their fluttering.

As the subsoil packed more solidly, this wilderness in time sunk beneath the waters. The Mississippi built up its sandbars again, storms shaped them above the waves, marsh grass raised the surface with its humus, and another forest grew. This, in turn, sunk. And so the process was repeated, time after time.

As the ground underneath became more compact, this wilderness eventually disappeared under the water. The Mississippi rebuilt its sandbars, storms reshaped them above the waves, marsh grass enriched the surface with its soil, and another forest emerged. This, in turn, sank. And so the cycle repeated, again and again.

At different depths below the surface of the ground the remains of these forests are found today, the wood perfectly preserved by the dampness. And through this tangled mass the dredges had to fight their way.

At various depths beneath the ground, remnants of these forests can still be found today, with the wood perfectly preserved by the moisture. The dredges had to struggle through this tangled mass.

It was a task too great for the ordinary type of 20 or 22-inch suction dredge, even with the strength of 1,000 horses behind it. When they met these giant stumps and trunks they just stopped.

It was a task too big for the usual 20 or 22-inch suction dredge, even with the power of 1,000 horses behind it. When they encountered these massive stumps and trunks, they just came to a halt.

A. B. Wood, of the sewerage and water department, had already designed and patented a centrifugal pump impeller adapted to the handling of sewerage containing trash. Learning of this, W. J. White, superintendent of dredging on the Canal, asked him to design a special impeller, along similar lines, for the dredge Texas.

A. B. Wood, from the sewer and water department, had already designed and patented a centrifugal pump impeller suitable for handling sewage with debris. Hearing this, W. J. White, who supervised dredging on the Canal, requested him to create a custom impeller, following similar principles, for the dredge Texas.

Results from the invention were remarkable. During the thirty days immediately preceding the installation the dredge had suffered delays from clogged suction which totalled 130-3/4 hours. During the thirty days immediately succeeding installation the total of delays for the same reason was cut down to 71-1/2 hours. The average yardage was, for the earlier period, 152 an hour, of actual excavation; and for the later period, 445 an hour—an increase of almost 200 per cent. The situation had been met.

Results from the invention were impressive. In the thirty days right before the installation, the dredge experienced delays from clogged suction totaling 130 and 3/4 hours. In the thirty days right after installation, those delays dropped to 71 and 1/2 hours for the same reason. The average yardage was 152 yards per hour of actual excavation during the earlier period, compared to 445 yards per hour in the later period—an increase of almost 200 percent. The situation had been addressed.

This was the period when the cost of labor and material began to jump. Employers were bidding against each other for men, and the government's work practically fixed the price of supplies.

This was the time when the cost of labor and materials started to rise significantly. Employers were competing with each other for workers, and the government's projects basically set the price of supplies.

George M. Wells, consulting engineer, in his report of December 9, 1918, to the Dock Board, summarized labor increases over the scale when the work was begun, as follows: Unskilled labor, 54%; pile driver men, 40%; machinists, 40%; blacksmiths, 40%; foremen and monthly, 15 to 40%—an average increase of 40%. Materials had advanced, he went on to show, as follows: Gravel, 72%; sand, 25%; cement, 10%; lumber (form), 70%; timber, 40%; piles, untreated, 40%; piles, treated, 25%. These increases, together with the expansion of the plans requiring a canal of maximum depth, instead of the pilot cut of fifteen feet, as originally planned; the insistence of the Levee Board that levees in the back areas must be raised to elevation 30; development of unforeseen and unforeseeable quicksand conditions in the various excavations; requirements of railroads for bridges of greater capacity and strength than needed; building of a power line to the Foundation Company's plant—not a Dock Board job, but one that the conditions required it should finance then; and other expenses, besides delaying the work, made another bond issue necessary to finish the job.

George M. Wells, consulting engineer, in his report dated December 9, 1918, to the Dock Board, summarized the labor increases compared to when the work began as follows: Unskilled labor, 54%; pile driver operators, 40%; machinists, 40%; blacksmiths, 40%; foremen and salaried workers, 15 to 40%—an average increase of 40%. He also indicated that material costs had risen as follows: Gravel, 72%; sand, 25%; cement, 10%; lumber (form), 70%; timber, 40%; untreated piles, 40%; treated piles, 25%. These increases, combined with the expansion of the plans calling for a canal with maximum depth instead of the originally planned pilot cut of fifteen feet; the Levee Board’s insistence that levees in the back areas must be raised to elevation 30; the emergence of unforeseen and unpredictable quicksand conditions in various excavations; railroad requirements for bridges with greater capacity and strength than necessary; the construction of a power line to the Foundation Company's plant—not a Dock Board project, but one that conditions demanded be financed then; and other costs, in addition to delaying the work, made another bond issue necessary to complete the project.

At its meeting of February 26, 1919, President Thompson laid the matter before the board. It decided to issue $6,000,000 of bonds, for which the same syndicate of bankers that had taken the other two offered 96. Liberty bonds were then selling at a big discount, and this seemed the best terms on which the money could be secured.

At its meeting on February 26, 1919, President Thompson presented the issue to the board. They decided to issue $6,000,000 in bonds, for which the same group of bankers that had handled the previous two offered 96. Liberty bonds were then being sold at a significant discount, and this appeared to be the best deal to secure the funds.

This gave a total issue of $12,000,000 to date, the interest on which amounted to $600,000 a year. The Levee Board raised its share of the "rental" to $550,000, to guarantee the interest; the Public Belt Railroad's $50,000 made the total complete.

This resulted in a total issuance of $12,000,000 so far, with the interest amounting to $600,000 each year. The Levee Board increased its portion of the "rental" to $550,000 to cover the interest, and the Public Belt Railroad's $50,000 completed the total.

In the meantime ships were beginning to bulk large on the ways of the Foundation and the Doullut & Williams yards. The Foundation company launched its first, the Gauchy—a 4,200-ton non-sinkable steel ship, built for the French government—in September, 1919; and the Doullut & Williams company launched its first, the New Orleans, a steel vessel of 9,600 tons, the largest turned out south of Newport News, built for the Shipping Board, in January, 1920. These were followed by four sister vessels from the Foundation yard and seven from the Doullut & Williams plant. The former went to sea through Bayou Bienvenu and the latter through Lake Pontchartrain. The Doullut & Williams yard is a large one. Originally planning a mere assembling yard, the Foundation Company had subsequently developed the greatest steel fabricating plant in the South—so confident it was that New Orleans would carry through the project.

In the meantime, ships were starting to take shape at the Foundation and Doullut & Williams yards. The Foundation company launched its first ship, the Gauchy—a 4,200-ton unsinkable steel vessel built for the French government—in September 1919. The Doullut & Williams company followed with its first ship, the New Orleans, a steel vessel weighing 9,600 tons, which was the largest ship produced south of Newport News, built for the Shipping Board, in January 1920. These were followed by four sister ships from the Foundation yard and seven from the Doullut & Williams plant. The former set sail through Bayou Bienvenu and the latter through Lake Pontchartrain. The Doullut & Williams yard is quite expansive. Initially intended as just an assembling yard, the Foundation Company ended up creating the largest steel fabricating plant in the South, fueled by its confidence that New Orleans would complete the project.

And, too, the New Orleans Army Supply Base that Uncle Sam was building on the river end of the Industrial Canal was rapidly rising—the facility that was to double the port storage capacity of New Orleans when it was finally completed in June, 1919.

And, also, the New Orleans Army Supply Base that Uncle Sam was constructing at the river end of the Industrial Canal was quickly taking shape—the facility that would double the port storage capacity of New Orleans when it was finally finished in June 1919.

The canal is 5-1/3 miles long. Between river and lock the canal prism will be 125 feet wide at the bottom and 275 feet at the top; between the lock and the lake, 150 feet wide at the bottom and 300 feet wide at the top. It is an excavation job of 10,000,000 cubic yards. Five hundred thousand flat cars would be required to carry that dirt—a train more than 4,000 miles long.

The canal is 5 and 1/3 miles long. Between the river and the lock, the canal will be 125 feet wide at the bottom and 275 feet wide at the top; between the lock and the lake, it will be 150 feet wide at the bottom and 300 feet wide at the top. It's an excavation project of 10,000,000 cubic yards. Five hundred thousand flat cars would be needed to transport that dirt—a train more than 4,000 miles long.

By September, 1919, the canal had been entirely dredged, except for the 2,000-foot channel between the lock and river, which must be left until the last, to a width of about 150 feet and a depth of 26 feet. Since then, the labor has been concentrated upon the lock. But twenty-six feet will float a vessel carrying 6,000 bales of cotton. Full dimensions, however, will be developed, and the Canal, with a system of laterals and basins such as are found in Europe, will be an Inner Harbor capable of indefinite expansion.

By September 1919, the canal had been completely dredged, except for the 2,000-foot channel between the lock and the river, which needs to be left until last, at a width of about 150 feet and a depth of 26 feet. Since then, the work has focused on the lock. However, twenty-six feet can accommodate a vessel carrying 6,000 bales of cotton. Full dimensions will be achieved, and the Canal, with a system of lateral channels and basins like those found in Europe, will become an Inner Harbor capable of unlimited expansion.

OVERWHELMING ENDORSEMENT BY NEW ORLEANS.

Huge support from New Orleans.

When the Canal was about half finished it received the most tremendous endorsement by every interest of New Orleans in its history. The question was put squarely before the people: "Do you think it is a good thing, and you are willing to be taxed to put it across, and, if so, how much?" And the answer came without hesitation: "It is absolutely necessary to the industrial progress of the city. We must have the Canal at all costs, and are willing to be taxed any amount for it."

When the Canal was about halfway done, it got an incredible endorsement from every New Orleans interest in its history. The question was put directly to the people: "Do you think this is a good thing, and are you willing to pay higher taxes to make it happen, and if so, how much?" The answer came immediately: "It is absolutely essential for the city's industrial growth. We need the Canal no matter the cost, and we’re ready to be taxed any amount for it."

On September 24, 1919, George M. Wells, consulting engineer, made a report to the Dock Board, showing that the last bond issue of $6,000,000 had been exhausted, and about $5,000,000 more was needed to finish the Canal.

On September 24, 1919, George M. Wells, a consulting engineer, reported to the Dock Board that the last bond issue of $6,000,000 had been used up, and that an additional $5,000,000 was needed to complete the Canal.

This was in the last days of the Thompson Board, and it took no action. The Hudson board entered upon its duties October 2. It comprised William O. Hudson, president; William A. Kernaghan, René F. Clerc, Albert Mackie, Thomas H. Roberts. Later, Mr. Roberts resigned and Hugh McCloskey took his place. All are sound business men, with the interests of the port at heart.

This was during the final days of the Thompson Board, and it didn’t take any action. The Hudson board began its duties on October 2. It included William O. Hudson as president; William A. Kernaghan, René F. Clerc, Albert Mackie, and Thomas H. Roberts. Later, Mr. Roberts stepped down and Hugh McCloskey replaced him. All are reputable business people, committed to the interests of the port.

They found, in the bank, only $2,067,845.37 to the Industrial Canal Account. After deducting the obligations already made there was left only $112,064.43 to continue the work. Without a public expression from New Orleans they were unwilling to incur the responsibility of issuing $5,000,000 more bonds.

They found only $2,067,845.37 in the Industrial Canal Account at the bank. After taking out the obligations already incurred, there was only $112,064.43 remaining to continue the work. Without a public statement from New Orleans, they were hesitant to take on the responsibility of issuing an additional $5,000,000 in bonds.

President Hudson called a series of meetings of the representative interests of the city to decide what was to be done. As the people of New Orleans had decided to begin the Canal in the first place, it was only right that they should determine whether the undertaking, costing five times as much as the original plan, should be carried through.

President Hudson called a series of meetings with the city's stakeholders to figure out what to do next. Since the people of New Orleans had initially decided to start the Canal, it made sense for them to determine if the project, which would cost five times more than the original plan, should continue.

The governor, the mayor, presidents of banks, committees of commercial exchanges, the president of the Public Belt Railroad, the president of the Levee Board, newspaper publishers, labor leaders and prominent business men were invited. Likewise, a general call was made to the community at large to express an opinion as to finishing the Canal.

The governor, the mayor, bank presidents, commercial exchange committees, the president of the Public Belt Railroad, the president of the Levee Board, newspaper publishers, labor leaders, and prominent businesspeople were invited. A general call was also made to the community to share their opinions on completing the Canal.

At the meeting of October 17 the city made its answer.

At the meeting on October 17, the city gave its response.

President Hudson outlined the attitude of the Dock Board as follows:

President Hudson outlined the Dock Board's stance as follows:

"The board has no feeling of prejudice against the completion of the Canal. We are in favor of it. We are anxious to complete it. It was fostered by the citizens of New Orleans.

"The board has no bias against finishing the Canal. We support it. We're eager to complete it. It was encouraged by the people of New Orleans."

"The floating of the bond issue is a simple matter, if you men think we ought to do it; but where is the money for meeting the interest to come from? The $600,000 interest on bonds now outstanding is being paid, $550,000 by the Levee Board, and $50,000 by the Public Belt Railroad. The Public Belt's share is paid from its earnings; but the Levee Board's share is being paid by direct taxation on the citizens of New Orleans. Must we increase that tax? I personally won't object to any taxation as a citizen to pay my part towards financing the Canal."

"The bond issue is easy to handle if you all think we should go for it; but where will we get the money for the interest? The $600,000 interest on the bonds we have now is being covered—$550,000 by the Levee Board and $50,000 by the Public Belt Railroad. The Public Belt pays its share from its earnings, but the Levee Board’s share comes directly from taxing the citizens of New Orleans. Do we need to raise that tax? Personally, I won't oppose any taxes as a citizen to help fund the Canal."

"I want to see the canal completed," said Governor Pleasant. "But it is up to the people of New Orleans to say whether they are willing to assume the added obligation."

"I want to see the canal finished," said Governor Pleasant. "But it's up to the people of New Orleans to decide if they're willing to take on the extra responsibility."

R. S. Hecht, president of the Hibernia Bank, and a recognized financial leader in New Orleans, then arose.

R. S. Hecht, the president of Hibernia Bank and a well-known financial leader in New Orleans, then stood up.

"I feel," he said, "that all who have the future of New Orleans at heart must agree that we are here to discuss not whether the Canal is to be finished, but how.

"I feel," he said, "that everyone who cares about the future of New Orleans has to agree that we're here to discuss not whether the Canal will be finished, but how ."

"Finished it must be, or our commercial future will be doomed for many years. If the Dock Board were to stop the work, it would forever kill its credit for any other bond issue that might be proposed for wharf development, new warehouses, or anything else.

"It has to get done, or our business future will be in trouble for a long time. If the Dock Board were to halt the work, it would completely ruin its chances of getting credit for any future bond issues for dock development, new warehouses, or anything else."

"The cost of the canal is a surprise to everybody. I was present when the cost was originally estimated at $3,500,000 with a leeway of $1,000,000. I said then, and I repeat now, that the canal could be financed if the people of New Orleans stood squarely behind it.

"The cost of the canal is a shock to everyone. I was there when the initial estimate was $3,500,000, with a cushion of $1,000,000. I said back then, and I say again now, that the canal could be funded if the people of New Orleans fully supported it."

"The cotton warehouse and the grain elevator cost a great deal more than the original estimates. So the Industrial Canal, though it is costing more than anticipated, because of the increased cost of material and labor and the increased size in the Canal, will, I feel sure, be justified by the development of the future.

"The cotton warehouse and the grain elevator ended up costing much more than we initially estimated. So, even though the Industrial Canal is also going over budget due to rising material and labor costs and its larger size, I'm confident it will be justified by future developments."

"Are we to be taxed for fifty years for our investment of $12,000,000 and get no return, or are we willing to pay a little bit more and get something worth while?"

"Are we going to be taxed for fifty years on our investment of $12,000,000 and not get anything in return, or are we ready to pay a little extra to get something worthwhile?"

That expressed the sentiment of the meeting.

That captured the feeling of the meeting.

BUILDING THE LOCK
BUILDING THE LOCK
BUILDING THE LOCK

"The people of New Orleans," said Hugh McCloskey, financier and dean of all Dock Board presidents, "have never failed to meet a crisis. It is the duty of the Dock Board to finish the Canal, no matter what the doubting Thomases may say."

"The people of New Orleans," said Hugh McCloskey, financier and head of all Dock Board presidents, "have always risen to meet a challenge. It's the Dock Board's responsibility to complete the Canal, regardless of what the naysayers may think."

Similar expressions were made by Thomas Killeen, president of the Levee Board; Thomas Cunningham, of the Public Belt Railroad; D. D. Moore, editor of the Times-Picayune; James M. Thompson, publisher of the Item; B. C. Casanas, president of the Association of Commerce; L. M. Pool, president of the Marine Bank; J. E. Bouden, president of the Whitney-Central Bank; Bernard McCloskey, attorney; Frank B. Hayne, of the Cotton Exchange; Jefferson D. Hardin, of the Board of Trade; William V. Seeber, representative of the Ninth Ward; Marshall Ballard, editor of The Item. Others present, assenting by their silence, included John F. Clark, president, and E. S. Butler, member of the Cotton Exchange; W. Horace Williams, of Doullut & Williams Shipbuilding Company; E. M. Stafford, state senator; C. G. Rives of the Interstate Bank; S. T. DeMilt, president of the New Orleans Steamship Association; R. W. Dietrich of the Bienville Warehouse Corporation; Edgar B. Stern, Milton Boylan, W. H. Byrnes, J. C. Hamilton, and about thirty other representative business and professional men. Mayor Behrman, John T. Banville, president of the Brewery Workers' Union, and George W. Moore, president of the Building Trades Council, at a subsequent meeting, gave their endorsement.

Similar statements were made by Thomas Killeen, president of the Levee Board; Thomas Cunningham, from the Public Belt Railroad; D. D. Moore, editor of the Times-Picayune; James M. Thompson, publisher of the Item; B. C. Casanas, president of the Association of Commerce; L. M. Pool, president of the Marine Bank; J. E. Bouden, president of the Whitney-Central Bank; Bernard McCloskey, attorney; Frank B. Hayne, from the Cotton Exchange; Jefferson D. Hardin, from the Board of Trade; William V. Seeber, representative of the Ninth Ward; and Marshall Ballard, editor of The Item. Others present, who showed their agreement by remaining silent, included John F. Clark, president, and E. S. Butler, member of the Cotton Exchange; W. Horace Williams, from Doullut & Williams Shipbuilding Company; E. M. Stafford, state senator; C. G. Rives from the Interstate Bank; S. T. DeMilt, president of the New Orleans Steamship Association; R. W. Dietrich from the Bienville Warehouse Corporation; Edgar B. Stern, Milton Boylan, W. H. Byrnes, J. C. Hamilton, and around thirty other prominent business and professional individuals. Mayor Behrman, John T. Banville, president of the Brewery Workers' Union, and George W. Moore, president of the Building Trades Council, later endorsed these positions at another meeting.

With only one dissenting voice, these meetings were unanimous that the Industrial Canal must be completed at all costs; that without it, the growth of the city would be seriously interrupted. The one protest was by the Southern Realty and Securities Company. It was made October 23 against the Levee Board's underwriting the interest on the new bond issue.

With just one opposing opinion, these meetings agreed that the Industrial Canal had to be completed no matter what; without it, the city's growth would face significant disruption. The sole objection came from the Southern Realty and Securities Company. It was raised on October 23 against the Levee Board's backing of the interest on the new bond issue.

On that date the Levee Board unanimously voted to guarantee these interest charges, amounting to $375,000 a year. This brings the total being paid by that body out of direct taxation to $925,000.00 a year. The other $50,000 is paid by the Public Belt Railroad.

On that date, the Levee Board voted unanimously to cover these interest charges, which total $375,000 a year. This brings the total amount being paid by that body through direct taxation to $925,000 a year. The remaining $50,000 is paid by the Public Belt Railroad.

To provide a leeway against the engineer's estimates, the Dock Board made provision for a bond issue of $7,500,000, but actually issued only $5,000,000 worth. This was taken by the same syndicate of bankers that had taken the previous issues, but this time they paid par. That was a point on which President Hudson had insisted. The contract was accepted December 10, 1919.

To allow some flexibility with the engineer's estimates, the Dock Board arranged for a bond issue of $7,500,000, but ended up issuing only $5,000,000. This was purchased by the same group of bankers that had bought the previous issues, but this time they paid face value. This was a condition that President Hudson had insisted on. The contract was accepted on December 10, 1919.

And the work went on, with every effort concentrated on economical construction.

And the work continued, with all efforts focused on cost-effective construction.

SIPHON AND BRIDGES.

Siphons and Bridges.

As an incident in the work of building the Industrial Canal, it was necessary to create a disappearing river.

As part of the construction of the Industrial Canal, it was essential to create a disappearing river.

This is the famous siphon—the quadruple passage of concrete that will carry the city's drainage underneath the shipway. It is one of the largest structures of its kind in the country.

This is the famous siphon—the four-way concrete passage that will direct the city's drainage underneath the shipway. It is one of the biggest structures of its kind in the country.

A word about New Orleans' drainage problem. The city is the bowl of a dish, of which the levees against river and lake are the rim. There is no natural drainage. The rainfall is nearly five feet a year, concentrated at times, upon the thousand miles of streets, into cloudbursts of four inches an hour and ten inches in a day. In the boyhood of men now in their early thirties it was a regular thing for the city to be flooded after a heavy rain.

A word about New Orleans' drainage issue. The city is like a bowl, with levees along the river and lake forming the rim. There’s no natural drainage system. The average annual rainfall is almost five feet, often falling heavily at once, with storms bringing four inches an hour and up to ten inches in a day. When men in their early thirties were kids, it was common for the city to flood after a heavy rain.

To meet the situation, New Orleans has constructed the greatest drainage system in the world. There are six pumping stations on the east side of the river, connected with each other by canals, and with a discharge capacity of more than 10,000 cubic feet a second. The seven billion gallons of water that these pumps can move a day would fill a lake one mile square and thirty-five feet deep.

To address the situation, New Orleans has built the largest drainage system in the world. There are six pumping stations on the east side of the river, linked together by canals, with a discharge capacity of over 10,000 cubic feet per second. The seven billion gallons of water that these pumps can move each day could fill a lake that is one mile square and thirty-five feet deep.

Three of the canals empty into Lake Pontchartrain, the fourth, the Florida Walk Canal, into Bayou Bienvenu, which leads into Lake Borgne, an arm of Pontchartrain.

Three of the canals flow into Lake Pontchartrain, while the fourth, the Florida Walk Canal, flows into Bayou Bienvenu, which leads into Lake Borgne, a part of Pontchartrain.

Because of this drainage contamination, the lake shore front of New Orleans has been held back in its development. Yet it is an ideal site for a suburb—on a beautiful body of water, and just half a dozen miles from the business district.

Because of this drainage contamination, the lakefront in New Orleans hasn't developed as it could have. Still, it's a perfect spot for a suburb—right by a beautiful body of water, and only about six miles from the business district.

So the Sewerage and Water Board has been planning ultimately to turn the city's entire drainage into Bayou Bienvenu, a stream with swamps on both sides, running into a lake surrounded by marsh.

So the Sewerage and Water Board has been planning to convert the city's entire drainage system into Bayou Bienvenu, a stream flanked by swamps on both sides, flowing into a lake encircled by marshland.

The Industrial Canal crosses the Florida Walk drainage canal. This made it necessary to build the inverted siphon.

The Industrial Canal crosses the Florida Walk drainage canal. This made it necessary to build the inverted siphon.

A siphon, in the ordinary sense, is a bent tube, one section of which is longer than the other, through which a liquid flows by its own weight over an elevation to a lower level. But siphon here is an engineering term to describe a channel that goes under an obstruction—the canal—and returns the water to its former level.

A siphon, in the usual sense, is a bent tube where one end is longer than the other, allowing liquid to flow by gravity from a higher elevation to a lower one. However, in this context, siphon is an engineering term that refers to a channel that goes under an obstacle—the canal—and returns the water to its original level.

Like the famous rivers that drop into the earth and appear again miles further on, the Florida drainage canal approaches to within a hundred or so feet of the Industrial Canal, then dives forty feet underground, passes beneath the shipway, and comes to the surface on the other side, in front of the pumping station, which lifts it into Bayou Bienvenu.

Like the well-known rivers that sink into the ground and resurface miles away, the Florida drainage canal gets within about a hundred feet of the Industrial Canal, then drops forty feet underground, goes under the shipway, and reemerges on the other side, in front of the pumping station, which raises it into Bayou Bienvenu.

At first it was planned to build a comparatively small siphon, but while the plans were being drawn, New Orleans entered upon its tremendous development. The engineers threw away their blueprints and began over again. They designed one that is capable of handling the entire drainage of the city. And in April, 1920, it was finished—a work of steel and concrete and machinery, costing nearly three-quarters of a million dollars, and with a capacity of 2,000 cubic feet of water a second, 7,200,000 an hour, 172,800,000 a day.

At first, the plan was to build a relatively small siphon, but as the plans were being developed, New Orleans underwent significant growth. The engineers discarded their original blueprints and started from scratch. They created a design that could handle the city's entire drainage system. By April 1920, it was completed—a structure made of steel, concrete, and machinery, costing nearly three-quarters of a million dollars, with the ability to manage 2,000 cubic feet of water per second, 7,200,000 an hour, and 172,800,000 a day.

It was a work that presented many difficulties. First the Florida Walk canal had to be closed by two cofferdams. The space between was pumped out, the excavation was made, and the driving of foundation piling begun. Quicksands gave much trouble. They flowed into the cut, until they were stopped with sheet piling. The piles were from 30 to 60 feet in length and from three to five feet apart on centers.

It was a project that had many challenges. First, the Florida Walk canal needed to be blocked off with two cofferdams. The area in between was pumped dry, excavation was done, and the installation of foundation piling began. Quicksands caused a lot of issues. They seeped into the excavation until they were contained with sheet piling. The piles were between 30 and 60 feet long and spaced three to five feet apart.

Forty-six feet below the ground surface (-26 Cairo datum) was laid the concrete floor of the siphon.

Forty-six feet below the ground surface (-26 Cairo datum) was the concrete floor of the siphon.

The siphon is divided into four compartments. There are two storm chambers, measuring 10 by 13 feet each, one normal weather chamber measuring 4 by 10 feet, and one public utilities duct, measuring 6 by 10 feet. These are inside dimensions. The floor of the siphon is two feet thick; the roof, one foot nine inches. The whole structure is a solid piece of concrete and capable of standing a pressure of more than 2,000 pounds to the square foot. Its total length is 378 feet; the shipway passing over it is 105 feet wide and 30 feet deep.

The siphon is split into four sections. There are two storm chambers, each measuring 10 by 13 feet, one regular weather chamber measuring 4 by 10 feet, and one public utilities duct, measuring 6 by 10 feet. These dimensions are for the inside. The floor of the siphon is two feet thick, and the roof is one foot nine inches. The entire structure is a solid piece of concrete and can withstand a pressure of over 2,000 pounds per square foot. Its total length is 378 feet, with the shipway above it being 105 feet wide and 30 feet deep.

In the public utilities duct are carried the city's water pipes, cables, telephone and telegraph wires, and gas mains.

In the public utilities duct, the city's water pipes, cables, telephone and telegraph wires, and gas mains are all routed.

The storm chambers will handle the rainfall of cloudbursts. In ordinary weather the water will be concentrated through the smaller chamber, in order to produce a strong flow and reduce the settlement of sediment to a minimum.

The storm chambers will manage the heavy rainfall from sudden downpours. During normal weather, water will be directed through the smaller chamber to create a strong flow and keep sediment buildup to a minimum.

Eight sluice gates, each 6 by 10 feet, open or close the water chambers. They are operated by hydraulic cylinders of the most approved type.

Eight sluice gates, each measuring 6 by 10 feet, open or close the water chambers. They are controlled by hydraulic cylinders of the most advanced design.

For sending workmen inside the siphon to make repairs or clearing away an obstruction there are eight manholes. Four measure 6 by 13 feet, two 6 by 6 feet, and two 6 by 4 feet.

For sending workers inside the siphon to make repairs or clear an obstruction, there are eight manholes. Four are 6 by 13 feet, two are 6 by 6 feet, and two are 6 by 4 feet.

As soon as the Florida Walk canal can be deepened and a few link-ups in the drainage system can be made, the entire drainage of New Orleans, in normal weather and during light storms, will, according to announcement by the Sewerage and Water Board, be sent through this outlet. During the occasional cloudbursts it will be necessary to send some of the drainage into the lake, but this will be rapidly flowing water and will sweep offshore. It means a great deal to the suburban development of the city.

As soon as the Florida Walk canal can be deepened and a few connections in the drainage system can be made, the whole drainage of New Orleans, in normal weather and during light storms, will, according to the Sewerage and Water Board, be routed through this outlet. During the occasional heavy rains, some of the drainage will need to go into the lake, but this will be fast-moving water that will flow out to sea. This is a big deal for the suburban development of the city.

A year and a half the siphon was in the making. Preparations for the structure cost more than $250,000—excavation foundation, etc. The concrete alone cost $170,000. Machinery and the work of housing and installing it cost $60,000 more.

A year and a half went into creating the siphon. The preparations for the structure cost over $250,000—excavation, foundation, and so on. Just the concrete alone cost $170,000. Machinery and the labor for housing and installing it added another $60,000.

Four bascule steel bridges now cross the Industrial Canal. They are the largest in the city. Three of them—at Florida Walk, for the Southern and Public Belt Railways; Gentilly, for the Louisville & Nashville; and on the lake front, for the Southern, weigh 1,600,000 pounds each—superstructure only. The fourth—at the lock—weighs 1,000,000 pounds. They are balanced by 800-ton concrete blocks and concrete adjustment blocks. Their extreme length is 160 feet; the moving leaf has a span of 117 feet.

Four bascule steel bridges now cross the Industrial Canal. They are the largest in the city. Three of them—at Florida Walk, for the Southern and Public Belt Railways; Gentilly, for the Louisville & Nashville; and on the lakefront, for the Southern—each weigh 1,600,000 pounds for just the superstructure. The fourth bridge—at the lock—has a weight of 1,000,000 pounds. They are balanced by 800-ton concrete blocks and concrete adjustment blocks. Their total length is 160 feet; the moving section has a span of 117 feet.

With a 30-foot right of way for railroad tracks, 11 feet for vehicles and trolley cars and four feet for pedestrians, they are designed to meet traffic conditions of a great and growing city. They will support 50-ton street cars or 15-ton road rollers—New Orleans has nothing as heavy as that now—and trains a great deal heavier than are now coming to the city. No bridge in the South will support as heavy loads.

With a 30-foot right of way for railroad tracks, 11 feet for vehicles and trolleys, and four feet for pedestrians, they are built to accommodate the traffic conditions of a large and growing city. They will support 50-ton streetcars or 15-ton road rollers—New Orleans doesn't have anything that heavy right now—and trains much heavier than those currently arriving in the city. No bridge in the South can handle such heavy loads.

The tensile strength of the steel of which the bridges are constructed is from 55,000 to 85,000 pounds to the square inch, and they will bear a wind load of 20 pounds to the square inch of exposed surface.

The tensile strength of the steel used to build the bridges ranges from 55,000 to 85,000 pounds per square inch, and they can withstand a wind load of 20 pounds per square inch of exposed surface.

They are operated by two 75-horse power electric motors, 440 volts, 60-cycle, 3-phase current, which is stepped down from 2,200 volts by means of transformers. In addition, there is a 36-horse power gasoline engine, to be used if the electrical equipment is out of order. To open or close the bridges will require a minute and a half.

They are powered by two 75-horsepower electric motors, operating at 440 volts, 60-cycle, 3-phase current, which is reduced from 2,200 volts using transformers. Additionally, there’s a 36-horsepower gasoline engine that can be used if the electrical system is down. It takes about a minute and a half to open or close the bridges.

THE REMARKABLE LOCK.

THE AMAZING LOCK.

Not only is the lock of the Industrial Canal one of the largest in the United States, but its construction solved a soil problem that was thought impossible. That of the Panama Canal is simple in comparison. The design is unique in many respects. The lock is a monument to the power of Man over the forces of Nature, and to the progress of a community that will not say die.

Not only is the lock of the Industrial Canal one of the largest in the United States, but its construction solved a soil problem that was thought to be impossible. The design of the Panama Canal is straightforward in comparison. The lock is unique in many ways. It's a testament to human ingenuity over nature's challenges and to the resilience of a community that refuses to give up.

Because of the great variation in the level of the river at low and high water—a matter of twenty feet—it was necessary to make the excavation, for building the lock, about fifty feet deep. In solid soil this would be a simple matter. But this ground has been made by the gradual deposit of Mississippi River silt upon what was originally the sandy bed of the ocean, and through these deposits run strata of water-bearing sand, or quicksand. This flows into a cut and causes the banks to cave and slide into the excavation. Underneath there is a pressure of marsh gas, which, with the pressure of the collapsing banks, squeezes the deeper layers of quicksand upwards, creating boils and blowing up the bottom.

Because the river level varies greatly between low and high water—by about twenty feet—it was necessary to dig the lock about fifty feet deep. In solid ground, this would be straightforward. However, this area consists of sediment deposited by the Mississippi River over time on what was originally a sandy ocean floor, and within these deposits are layers of water-bearing sand, or quicksand. This flows into the excavation and causes the banks to collapse and slide in. Below, there's a buildup of marsh gas, which, combined with the pressure from the collapsing banks, forces the deeper layers of quicksand upward, creating bubbles and lifting the bottom.

New Orleans has had plenty of experiences with these flowing sands in its shallow sewerage excavations. How, then, expect to make an excavation fifty feet deep? asked the doubting Thomases. It couldn't be done. The quicksands would flow in too fast. The dredges would drain the surrounding subsoil, but that wouldn't get beyond a certain depth. Furthermore, what assurance was there that the soil that far down would supply sufficient friction to hold the piles necessary to sustain the enormous weight of the lock and the ships passing through it?

New Orleans has had many encounters with these shifting sands in its shallow sewer excavations. So how can we expect to dig a hole fifty feet deep? questioned the skeptics. It just couldn’t be done. The quicksand would pour in too quickly. The dredges could pump out the surrounding soil, but they wouldn’t go deeper than a certain point. Additionally, what guarantee was there that the soil that deep would provide enough friction to support the piles needed to hold the massive weight of the lock and the ships passing through it?

Undaunted by these croakings, the engineers, from test borings, calculated the sliding and flowing character of the soil, and estimated the various pressures that would have to be counteracted, balanced this with the holding power of pine and steel and concrete, evolved a plan, and began an excavation of a hole 350 feet wide by 1,500 feet long, gradually sloping the cut (1 to 4 ratio) to a center where the lock, 1,020 by 150 feet, outside dimensions, was to be built.

Undeterred by these warnings, the engineers analyzed the test borings to determine the sliding and flowing nature of the soil and estimated the various pressures that needed to be addressed. They weighed this against the strength of pine, steel, and concrete, developed a plan, and started digging a hole that was 350 feet wide and 1,500 feet long, gradually sloping the cut with a 1 to 4 ratio towards a center where the lock, measuring 1,020 by 150 feet in outside dimensions, was to be constructed.

INNER HARBOR—NAVIGATION CANAL
INNER HARBOR—NAVIGATION CANAL
Lock and Vicinity
INNER HARBOR—NAVIGATION CANAL
Lock and Surroundings

The gentle slope of the cut was to prevent slides.

The gentle slope of the cut was designed to prevent slides.

It had been ascertained that the first stratum of quicksand began twenty-eight feet below the ground surface (-3 Cairo datum) and was three feet thick; the second stratum, forty-eight feet below the surface (-23 Cairo datum) and ten feet thick. Coarser sand extended eleven feet below this, from -33 Cairo datum. The second stratum of flowing sand began just below where the lock floor had to be laid. The third layer was 80 feet below the surface (-55 Cairo datum); the tips of the piling would just miss it.

It was determined that the first layer of quicksand began twenty-eight feet below the ground surface (-3 Cairo datum) and was three feet thick; the second layer was forty-eight feet below the surface (-23 Cairo datum) and ten feet thick. Coarser sand extended eleven feet below this, starting from -33 Cairo datum. The second layer of flowing sand began just below where the lock floor needed to be placed. The third layer was 80 feet below the surface (-55 Cairo datum); the tops of the piles would just avoid it.

Excavation began in November, 1918. While the dredges were at work a wooden sheet piling cofferdam was driven completely around the lock, and about 125 feet from the edge of the bank, to cut off the first quicksand stratum. About 150 feet further in, when the excavation was well advanced, a second ring of sheet piling was driven, to cut off the second stratum, which carried a static pressure of 55 feet and was just a foot or so below where the floor of the lock would be. It was not thought necessary to cut off the third stratum.

Excavation started in November 1918. While the dredges were working, a wooden sheet piling cofferdam was set up all around the lock, about 125 feet from the bank's edge, to stop the first layer of quicksand. About 150 feet further in, once the excavation was progressing well, a second ring of sheet piling was installed to block the second layer, which had a static pressure of 55 feet and was just a foot or so below where the lock's floor would be. It was deemed unnecessary to block the third layer.

The excavation was made in the wet. When it was finished the dredges moved back into the Canal, the entrance closed, and the work of unwatering the lock site began. This was in April, 1919.

The excavation was done in wet conditions. Once it was finished, the dredges moved back into the Canal, the entrance was closed, and the process of draining the lock site started. This was in April 1919.

There had never been such a deep cut made in this section. Consequently, the character of the soil, while it could be estimated, could not be known absolutely. And the exact pressure of the gas could not be known.

There had never been such a deep cut made in this section. As a result, the type of soil, although it could be estimated, couldn't be known for sure. And the exact pressure of the gas couldn't be determined.

The sands proved to be more liquid and the gas pressure stronger than anticipated. Quicksands ran through the sheet piling as through a sieve. The walls of the excavation began to slough and cave. The gas pressure became alarming when the weight of earth and water was taken off; sand boils began to develop at the bottom; the floor of the cut was blowing up.

The sand turned out to be more fluid and the gas pressure stronger than expected. Quicksand flowed through the sheet piling like a sieve. The walls of the excavation started to collapse and give way. The gas pressure became concerning when the weight of the earth and water was removed; sand boils began to form at the bottom, and the floor of the cut was lifting up.

The fate of the Industrial Canal hung in the scale.

The future of the Industrial Canal was uncertain.

To meet the situation the engineers pumped a great volume of water into the excavation. Its weight counterbalanced the earth pressure of the side and the gas pressure of the bottom.

To handle the situation, the engineers pumped a large amount of water into the excavation. Its weight balanced out the earth pressure from the sides and the gas pressure from the bottom.

Then another ring of sheet piling was driven inside the other two. This one was of steel, and the walls were braced apart by wooden beams ten inches square and fifteen feet apart in both directions. This is one of the largest cofferdams of steel ever driven. As an added precaution against the danger of a blowout by the third stratum of quicksand, which had a static head of 75 feet, 130 ten-inch artesian wells were driven inside the steel cofferdam. Fifty-six similar wells were driven between the steel and the wooden cofferdams to dry out the second stratum of quicksand, as much as possible, and lessen its flowing character.

Then another ring of sheet piling was driven inside the other two. This one was made of steel, and the walls were supported by wooden beams that were ten inches square and fifteen feet apart in both directions. This is one of the largest steel cofferdams ever built. As an extra precaution against the risk of a blowout from the third layer of quicksand, which had a static head of 75 feet, 130 ten-inch artesian wells were drilled inside the steel cofferdam. Fifty-six similar wells were drilled between the steel and the wooden cofferdams to dry out the second layer of quicksand as much as possible and reduce its flowing nature.

In November, 1919, the work of unwatering the lock site again began. Only one foot every other day was taken off. Engineers watched every timber. It was not until January 4, 1920, that the unwatering was complete. The plan had worked. Only in one place had there been any movement—a section of the wooden sheet piling about 300 feet long bulged forward a maximum distance of three inches, when the bracing caught and stopped it.

In November 1919, the process of dewatering the lock site started again. Progress was slow, with only one foot being removed every other day. Engineers monitored every piece of timber closely. It wasn't until January 4, 1920, that the dewatering was finished. The plan had succeeded. There was only one instance of movement—a section of wooden sheet piling around 300 feet long bulged forward by a maximum of three inches before the bracing caught it and stopped any further movement.

Then began the work of driving the 24,000 piles on which the lock was to be floated. They are 60 feet long and their tips are 100 feet below the surface of the ground.

Then the work began to drive the 24,000 piles on which the lock would be built. They are 60 feet long, and their tips are 100 feet below the surface.

In March, 1920, the work of laying the concrete began. The work was done in 15-foot sections, for only a few of the braces could be moved at one time. When it was finished in April, 1921, the lock was in one piece, a solid mass of steel and stone, 1,020 feet long, 150 feet wide, and 68 feet high, weighing, with its gates and machinery, 225,000 tons, and filled with water, 350,000 tons.

In March 1920, the concrete was poured. The work was done in 15-foot sections because only a few braces could be moved at a time. When it was completed in April 1921, the lock was fully constructed—a solid mass of steel and stone measuring 1,020 feet long, 150 feet wide, and 68 feet high. It weighed 225,000 tons with its gates and machinery, and when filled with water, it totaled 350,000 tons.

The concrete floor of the lock is 9 to 12 feet thick, the walls 13 feet wide at the bottom, decreasing to a two foot width at the top. Six thousand tons of reinforcing steel were used in the construction, and 125,000 barrels of cement. There are 90,000 cubic yards of concrete in the structure. Two and a half million feet of lumber were used in building the forms.

The concrete floor of the lock is 9 to 12 feet thick, the walls are 13 feet wide at the bottom, tapering to a 2-foot width at the top. Six thousand tons of reinforcing steel were used in construction, along with 125,000 barrels of cement. There are 90,000 cubic yards of concrete in the structure. Two and a half million feet of lumber were used to build the forms.

Usable dimensions of the lock are 640 feet long, 75 feet wide, and 30 feet (at minimum low water of the river) deep.

Usable dimensions of the lock are 640 feet long, 75 feet wide, and 30 feet deep (at minimum low water of the river).

The top of the lock is 20 feet above the natural ground surface and 6 feet above the highest stage of the Mississippi River on record. To the top the ground will be sloped on a 150-foot series of terraces. This will brace the walls against the pressure of water within the monolith. It will be developed to a beautiful park. Heavy anchor-columns of concrete will hold the walls against the pressure of these artificial hills when the lock is empty.

The top of the lock is 20 feet above the natural ground level and 6 feet above the highest recorded stage of the Mississippi River. The ground will slope up to the top over a series of 150-foot terraces. This will support the walls against the pressure of the water inside the structure. It will be transformed into a beautiful park. Strong concrete anchor columns will keep the walls stable against the pressure from these artificial hills when the lock is not in use.

Traffic crosses the canal here by a steel bascule bridge 65 feet wide, with two railroad and two street car tracks, two vehicle roadways, and two ways for pedestrians. Concrete viaducts lead to the bridge.

Traffic crosses the canal here via a 65-foot-wide steel bascule bridge, featuring two railroad tracks, two streetcar tracks, two vehicle lanes, and two pedestrian walkways. Concrete viaducts approach the bridge.

Gas and water mains, sewer pipes and telephone, telegraph and electric wires pass under the lock in conduits cast in the living concrete.

Gas and water lines, sewer pipes, and telephone, telegraph, and electric wires run under the lock in conduits set in the solid concrete.

Water is admitted into and drained from the lock by culverts cast in the base. These are 8 by 10 feet, narrowing at the opening to 8 by 8 feet, and closed by 8 sluice gates, each operated by a 52-horsepower electric motor. It will be possible to fill or empty the lock in ten minutes.

Water enters and exits the lock through culverts built into the base. These are 8 by 10 feet, tapering at the opening to 8 by 8 feet, and are sealed by 8 sluice gates, each powered by a 52-horsepower electric motor. The lock can be filled or emptied in ten minutes.

There are five sets of gates to the lock. They are built of steel plates and rolled shapes, four and a half feet thick and weighing 200 tons each. And there is an emergency dam weighing 720 tons, which in case of necessity can be used as a gate.

There are five sets of gates for the lock. They are made of steel plates and shaped sections, four and a half feet thick and weighing 200 tons each. There is also an emergency dam that weighs 720 tons, which can be used as a gate if needed.

Four pairs of the gates are of 55-foot size; one of 42-foot. Each gate is operated by a 52-horsepower electric motor. When open, the gates fit flush into the walls of the locks.

Four pairs of the gates are 55 feet wide; one is 42 feet. Each gate is powered by a 52-horsepower electric motor. When open, the gates align perfectly with the walls of the locks.

In the emergency dam is the refinement of precaution—designed as it was to save the city from overflow in the remote event of the lock gates failing to work during high water, and to insure the uninterrupted operation of the lock in normal times, if the gates should be sprung by a ship, or otherwise put out of commission.

In the emergency dam is the ultimate form of precaution—created to protect the city from flooding in the unlikely event that the lock gates fail during high water, and to ensure the lock operates smoothly in normal times, even if the gates are damaged by a ship or for any other reason.

This dam consists of eight girders or sections, 80 feet long, 3 feet wide and 6 feet high. They weigh 90 tons each. They are kept on a platform near the river end of the lock. Nearby is the crane with a 300-horsepower motor, that picks up these girders and drops them into the slots in the walls of the lock. To set this emergency dam is the work of an hour.

This dam is made up of eight sections, each 80 feet long, 3 feet wide, and 6 feet high. They weigh 90 tons each. They're stored on a platform close to the river end of the lock. Nearby, there's a crane with a 300-horsepower motor that lifts these sections and places them into the slots in the lock walls. Setting up this emergency dam takes about an hour.

A ship passing through the lock will not proceed under her own power. There are six capstans, two at each end of the lock and two at the middle, each operated by a 52-horsepower electric motor, and capable of developing a pull of 35,000 pounds, which will work the vessels through.

A ship going through the lock won't move on its own power. There are six capstans, two at each end of the lock and two in the middle, each powered by a 52-horsepower electric motor and able to pull 35,000 pounds, which will move the vessels through.

The lock complete, counting the bridge and approaches, cost $7,500,000. One and a half million of this is for machinery, and $56,000 for the approaches.

The total cost for the lock, including the bridge and its approaches, was $7,500,000. Out of this, $1.5 million was allocated for machinery, and $56,000 was spent on the approaches.

Henry Goldmark, the New York engineer who designed the gates of the Panama Canal and the New Orleans Industrial Canal, in a letter of March 24, 1921, to the engineering department of the Dock Board, comments as follows on the remarkable lock:

Henry Goldmark, the New York engineer who designed the gates of the Panama Canal and the New Orleans Industrial Canal, in a letter dated March 24, 1921, to the engineering department of the Dock Board, remarks as follows on the impressive lock:

"I was much impressed by the uniformly high grade of construction of the lock, the systematic and energetic way in which the work was being carried on, and especially by the admirable spirit of team work, shown by the employees of the Dock Board, of different grades, as well as the contractors, superintendents and foremen.

"I was really impressed by the consistently high quality of the lock's construction, the organized and energetic manner in which the work was being conducted, and especially by the excellent teamwork exhibited by the employees of the Dock Board at various levels, along with the contractors, superintendents, and foremen."

"The desire to get the best possible results in all the details, at the least cost, was manifest throughout.

"The desire to achieve the best results in everything, while spending the least amount of money, was clear throughout."

"The unique method used for carrying on the very difficult and risky work of excavation has attracted much professional attention in all parts of the country. Its successful completion is very creditable to all concerned, in the inception and carrying out of the method used.

"The unique approach taken for the challenging and dangerous work of excavation has gained a lot of professional interest nationwide. The successful completion of this project is a significant achievement for everyone involved in developing and implementing the method used."

"The concrete work gives the impression of lightness, as well as strength, as though every yard of concrete was doing its special share of the work without overstraining, which is, of course, the characteristic of well-designed reinforced masonry.

"The concrete work appears light yet strong, as if every yard of concrete is contributing its part without being pushed too hard, which is, of course, a hallmark of well-designed reinforced masonry."

"The outer surfaces are particularly smooth and well finished, more so than in any work I have recently seen.

"The outer surfaces are especially smooth and well-finished, more so than in any work I've seen lately."

"The erection of the gates, valves, operating machinery and the protective dam, has kept up closely with the concrete work, so that no delays need be apprehended at the close of the construction period.

"The installation of the gates, valves, operating machinery, and the protective dam has progressed in sync with the concrete work, ensuring there are no expected delays at the end of the construction period."

"The shop and field work in the lock gates is excellent. The rivet holes match well and the rivet heads appear to be tight and well formed. The gate leaves seem very straight and true."

"The shop and field work on the lock gates is great. The rivet holes line up nicely and the rivet heads look tight and well-shaped. The gate leaves appear very straight and true."

The lock was designed by George M. Wells of the George W. Goethals Company, assisted by R. O. Comer, designing engineer of the Dock Board, and approved by General Goethals. The methods employed to unwater the lock were devised by Mr. Wells. J. Devereux O'Reilly, chief engineer of the Dock Board, to November, 1919, had charge of the details of installing the unwatering and safety devices. He was succeeded by General Arséne Perrilliat, who supervised the final unwatering process. Upon his death in October, 1920, he was succeeded by J. F. Coleman & Company, in charge of the engineering department, and H. M. Gallagher, chief engineer, under whom work is being brought to a conclusion.

The lock was designed by George M. Wells from the George W. Goethals Company, with help from R. O. Comer, the Dock Board’s design engineer, and was approved by General Goethals. The methods used to drain the lock were created by Mr. Wells. J. Devereux O'Reilly, the chief engineer of the Dock Board until November 1919, was responsible for the details of installing the drainage and safety systems. He was followed by General Arséne Perrilliat, who oversaw the final drainage process. After his death in October 1920, J. F. Coleman & Company took over the engineering department, with H. M. Gallagher as chief engineer, under whom the work is nearing completion.

From first to last, Tiley S. McChesney, assistant secretary and treasurer of the Dock Board, rendered intelligent and invaluable service, gathering together and holding the threads of the enterprise, and attending promptly to the multitude of details connected with the prosecution of the work.

From start to finish, Tiley S. McChesney, the assistant secretary and treasurer of the Dock Board, provided smart and essential service, bringing together and managing the various aspects of the project, and quickly taking care of the many details involved in carrying out the work.

The lock was formally dedicated May 2, 1921—a ceremony that was the feature of the Mississippi Valley Association's convention in New Orleans.

The lock was officially dedicated on May 2, 1921—a ceremony that highlighted the Mississippi Valley Association's convention in New Orleans.

With the dredging of the channel between the river and the lock, a work that should be finished before January, 1922, ships will be able to pass from the Mississippi into Lake Pontchartrain. Then New Orleans can plan its next great development.

With the dredging of the channel between the river and the lock, a project that should be completed before January 1922, ships will be able to travel from the Mississippi into Lake Pontchartrain. Then New Orleans can plan its next major development.

CROSS SECTION OF LOCK
CROSS SECTION OF LOCK
LOCK CROSS SECTION
CROSS SECTION OF SIPHON
CROSS SECTION OF SIPHON
Siphon Cross Section

NEW CHANNEL TO THE GULF.

NEW CHANNEL TO THE GULF.

George M. Wells, George R. Goethals, son of the General, Colonel E. J. Dent, U.S. district engineer at New Orleans, and other engineers who have studied the problem, say that the dredging of a channel from the Industrial Canal to the gulf through Lake Pontchartrain, or the marshes, is feasible, comparatively cheap, and maintenance would be simple. This would shorten the distance from New Orleans to the sea by about 50 miles, and would be a vast saving for ships. It is one of the objects towards which the Hudson Dock Board is working.

George M. Wells, George R. Goethals, son of the General, Colonel E. J. Dent, U.S. district engineer in New Orleans, and other engineers who have looked into the situation say that digging a channel from the Industrial Canal to the gulf through Lake Pontchartrain or the marshes is doable, relatively inexpensive, and easy to maintain. This would cut the distance from New Orleans to the sea by about 50 miles, which would be a huge benefit for ships. It is one of the projects the Hudson Dock Board is focusing on.

It is Uncle Sam's recognized duty to develop and maintain harbors and channels to the sea. Distance is obviously an important factor; furthermore, the proposed new outlet would be an important link in the Intracoastal Canal, connecting with the Warrior River section of Alabama, which the government is developing between the Atlantic and Gulf Coasts. A bill was introduced in the Senate in 1920 by Senator Ransdell of Louisiana, providing for the development of the proposed channel; it was not pressed because the canal was far from completed. However, every effort will be made by the Dock Board from now on to have Uncle Sam take hold.

It is Uncle Sam's recognized responsibility to develop and maintain harbors and channels to the sea. Distance is clearly an important factor; moreover, the suggested new outlet would be a key link in the Intracoastal Canal, connecting with the Warrior River section of Alabama, which the government is developing between the Atlantic and Gulf Coasts. A bill was introduced in the Senate in 1920 by Senator Ransdell of Louisiana to provide for the development of the proposed channel; it wasn’t pushed because the canal was far from finished. However, going forward, the Dock Board will make every effort to get Uncle Sam involved.

Colonel Dent has for a number of months been studying the feasible routes. He, by the way, is thoroughly convinced of the value of the Industrial Canal to the development of New Orleans, and the commerce of the nation, and has so expressed himself in public.

Colonel Dent has been studying the viable routes for several months. By the way, he is completely convinced of the importance of the Industrial Canal for the growth of New Orleans and the nation’s trade, and he has stated this publicly.

The Pontchartrain route has been laid off, by engineers, beginning at the Canal, paralleling the south shore of the Lake Pontchartrain to the south draw of the Southern Railway bridge, thence to the Rigolets to Cat Island Pass, from there to Cat Island Channel and so to the deep water of the Gulf, a total distance of 75 miles.

The Pontchartrain route has been mapped out by engineers, starting at the Canal and running alongside the south shore of Lake Pontchartrain to the south draw of the Southern Railway bridge, then to the Rigolets, to Cat Island Pass, from there to Cat Island Channel, and finally out to the deep water of the Gulf, covering a total distance of 75 miles.

Soundings and surface probings have been taken at frequent intervals over the entire route. These have shown the engineers the following:

Soundings and surface checks have been done regularly along the entire route. These have shown the engineers the following:

Three-quarters of a mile from the south shore of the lake, and as far as the railroad drawbridge, a hard bottom is found. The material is principally packed sand, rather fine, with a small amount of clay, and occasionally some broken shells. Beyond this distance from the shore, the bottom is softer, consisting of mud mixed with sand. From the bridge over the remainder of the route, the bottom, with the exception of a few sand pockets, is soft—a blue mud with a large percentage of sand. This soft material has so much tenacity, however, that current and wave wash, which tend to fill up artificially dredged channels, would affect only the surface.

Three-quarters of a mile from the south shore of the lake, and up to the railroad drawbridge, the bottom is solid. The material is mainly packed sand, pretty fine, with a bit of clay and occasionally some broken shells. Beyond this distance from the shore, the bottom gets softer, made up of mud mixed with sand. From the bridge onward, most of the bottom is soft—blue mud that has a high percentage of sand, with just a few areas of sand pockets. This soft material is so tough that the current and wave action, which usually fill in artificially dredged channels, would only impact the surface.

The government is conducting large dredging operations in Mobile Bay, Gulfport Channel, Atchafalaya Bay and the Houston Ship Channel. An outline of the results there will show how feasible the dredging of the Pontchartrain Channel would be, and how much cheaper in comparison.

The government is carrying out extensive dredging operations in Mobile Bay, Gulfport Channel, Atchafalaya Bay, and the Houston Ship Channel. An overview of the results there will indicate how practical dredging the Pontchartrain Channel would be, and how much less expensive it would be in comparison.

The channel connecting Mobile Bay with the Gulf of Mexico has a bottom very soft for the most part, and with a small percentage of sand. Towards the outer end, the material is black mud, about equal in consistency to the softest material found in the Pontchartrain route. A sounding pole with a 4-inch disc on the end can be easily pushed three or four feet into the mud and pulled out again. Wave and current action cause the channel to shoal at the rate of 78,000 to 132,000 cubic yards per mile per year, depending on the softness of the bottom and the depth. Where the highest rate obtains, the surrounding material consists of soft mud, without a trace of sand. Experience shows that where there is a fair percentage of sand in the material adjacent to the channel bed, the shoaling is lessened. In general, the material along the Pontchartrain route contains a greater percentage of sand and is far more tenacious than that along the Mobile Bay Channel. Furthermore, the Pontchartrain route is not exposed to such strong cross currents.

The channel connecting Mobile Bay to the Gulf of Mexico mostly has a very soft bottom, with only a small amount of sand. Toward the outer end, the bottom is black mud, similar in texture to the softest material found in the Pontchartrain route. A sounding pole with a 4-inch disc on the end can easily be pushed three or four feet into the mud and pulled back out. Waves and currents cause the channel to fill in at a rate of 78,000 to 132,000 cubic yards per mile each year, depending on how soft the bottom is and the depth. Where the highest rate occurs, the surrounding material is soft mud, with no trace of sand. Experience shows that when there's a decent amount of sand in the material next to the channel bed, the shoaling decreases. Overall, the material along the Pontchartrain route has a higher percentage of sand and is much firmer than that along the Mobile Bay Channel. Additionally, the Pontchartrain route isn’t exposed to such strong cross currents.

The Gulfport Channel is dredged through very soft material, a grayish-blue mud of oozy consistency, into which the sounding pole penetrates six feet with very little exertion. On top, a small amount of sand is found, but practically none in the lower stratum. The material is considerably softer than any encountered on the Pontchartrain route, except for one small stretch. Yet the shoaling is not great. Where the shoaling is heaviest, between the end of the pier and Beacon 10, only about 700,000 cubic yards a mile has to be dredged out every year to maintain the channel. From Beacon 10 out, the average annual maintenance is less than 200,000 cubic yards a mile. Except for the four-mile stretch west of the inner entrance to the Cat Island Channel, the bottom, on the Pontchartrain route, is harder than that of the Gulfport Channel. Therefore, it is reasonable to conclude that the maintenance of the Pontchartrain Channel would not average as high as the outer portion of the Gulfport Channel.

The Gulfport Channel is dredged through very soft material, a grayish-blue mud that's slimy in texture, into which the sounding pole goes down six feet with very little effort. On top, there's a small amount of sand, but almost none in the lower layer. The material is much softer than what was found on the Pontchartrain route, except for one small section. However, the buildup isn't significant. Where the buildup is worst, between the end of the pier and Beacon 10, only about 700,000 cubic yards per mile need to be dredged out each year to keep the channel open. From Beacon 10 onward, the average annual maintenance is less than 200,000 cubic yards per mile. Except for the four-mile section west of the inner entrance to the Cat Island Channel, the bottom on the Pontchartrain route is harder than that of the Gulfport Channel. So, it makes sense to conclude that maintaining the Pontchartrain Channel wouldn’t average as high as the outer part of the Gulfport Channel.

The Atchafalaya Bay Ship Channel, extending from the mouth of the Atchafalaya River across the shoal waters of Atchafalaya Bay, to about the 20-foot contour of the Gulf, a distance of fifteen miles, is through a material of slushy mud, with occasional thin pockets of sand. The shoaling runs from 540,000 to 1,680,000 cubic yards a mile a year. The highest rate is obtained in shallow water. Except in the stretch mentioned, the material on the Pontchartrain route is not as soft as on the Atchafalaya, nor are the depths as shoal, nor is there the exposure to cross currents.

The Atchafalaya Bay Ship Channel runs from the mouth of the Atchafalaya River through the muddy shoal waters of Atchafalaya Bay, reaching about the 20-foot depth of the Gulf, a distance of fifteen miles. It's made up of slushy mud with occasional thin pockets of sand. The amount of sediment buildup ranges from 540,000 to 1,680,000 cubic yards per mile each year, with the highest rates occurring in shallow water. Aside from the section mentioned, the material along the Pontchartrain route is not as soft as it is in Atchafalaya, the depths are deeper, and there’s less exposure to cross currents.

In the Houston Ship Channel, the material is composed of soft mud with a small amount of sand. A two-mile stretch through Red Fish Reef is practically self-maintaining. For the remainder of the channel, during the six years from 1915 to 1920, a total excavation of 13,574,000 cubic yards was necessary to maintain the depth. This is equivalent to 100,000 cubic yards a mile a year.

In the Houston Ship Channel, the material consists of soft mud with a little bit of sand. A two-mile stretch through Red Fish Reef practically takes care of itself. For the rest of the channel, from 1915 to 1920, a total excavation of 13,574,000 cubic yards was needed to keep the depth. That’s about 100,000 cubic yards a mile each year.

In summary, then:

In conclusion, then:

1. The Lake Pontchartrain route is practically unexposed to cross currents, as is the case with the Mobile Bay, Gulfport, Atchafalaya, and, to a certain extent, the outer portion of the Houston Ship Channels.

1. The Lake Pontchartrain route is almost completely shielded from cross currents, unlike the Mobile Bay, Gulfport, Atchafalaya, and, to some degree, the outer part of the Houston Ship Channels.

2. The material along and on the sides of the Pontchartrain route is, with the exception of a small stretch, more tenacious, and contains, in general, a greater proportion of sand than in the case of the neighboring channels mentioned.

2. The material along and on the sides of the Pontchartrain route is, except for a small stretch, more durable and generally has a higher proportion of sand than the neighboring channels mentioned.

The channel could therefore be more easily maintained.

The channel could be maintained more easily.

Engineers estimate that a channel with a 300-foot bottom would be needed. On the south shore of the lake, the side slopes should be on the 1 to 3 ratio, with provision for a 1 to 5 ratio at the end of five years. Dumped on shore, the material would reclaim considerable frontage, and eliminate the re-deposit of this material in the channel.

Engineers believe that a channel with a 300-foot bottom is necessary. On the south side of the lake, the slopes should have a 1 to 3 ratio, with a plan for a 1 to 5 ratio after five years. When dumped on the shore, the material would restore a significant amount of shoreline and prevent the need to deposit this material back into the channel.

Through the remainder of the route, the original excavation should be made with side slopes on the 1 to 5 ratio, with provision made for a 1 to 10 ratio in five years.

Through the rest of the route, the initial excavation should be done with side slopes at a 1 to 5 ratio, with plans for a 1 to 10 ratio in five years.

The dredging of the 75 miles of the Pontchartrain Channel would amount to 97,200,000 cubic yards, it is estimated by engineers. The cost would be around $10,000,000. The annual maintenance, during the first five years, would amount to 8,880,000 cubic yards—an estimate based on a comparison with the other channels into the Gulf, and the character of the material to be excavated. This estimate is considered large—but even at that, it is only 118,400 cubic yards a mile a year, and the cost would be about $750,000, according to Colonel Dent. After five years, it would be less.

The dredging of the 75 miles of the Pontchartrain Channel is estimated by engineers to require 97,200,000 cubic yards of material. The cost will be around $10,000,000. The annual maintenance during the first five years is estimated to be 8,880,000 cubic yards—this estimate is based on comparisons with other channels leading into the Gulf and the type of material that needs to be excavated. While this estimate seems high, it breaks down to just 118,400 cubic yards per mile per year, and the cost would be about $750,000, according to Colonel Dent. After five years, it will be less.

Another proposed route, investigated by Colonel Dent, is through Lake Borgne. A canal some miles in length, through the marsh, would connect the lake with the Industrial Canal. This route has considerable maintenance advantages over the Pontchartrain route. The character of the bottom in Borgne is more or less the same as in Pontchartrain.

Another proposed route, looked into by Colonel Dent, is through Lake Borgne. A canal several miles long, cutting through the marsh, would link the lake with the Industrial Canal. This route has significant maintenance benefits compared to the Pontchartrain route. The bottom conditions in Borgne are more or less similar to those in Pontchartrain.

Sooner or later, one of these channels will be built by the government. That it has not already been begun is due to the fact that the Canal has not yet been completed, and the expected development has not taken place. But there is no doubt that it will.

Sooner or later, the government will construct one of these channels. The reason it hasn't started yet is that the Canal hasn't been finished, and the anticipated development hasn't happened. But there's no doubt that it will.

TYPICAL BRIDGE ON CANAL
TYPICAL BRIDGE ON CANAL
Typical canal bridge
EMERGENCY DAM CRANE
EMERGENCY DAM CRANE
Emergency dam crane

WHY GOVERNMENT SHOULD OPERATE CANAL.

WHY THE GOVERNMENT SHOULD RUN THE CANAL.

It is the function of the state to provide port facilities in the form of docks, piers, warehouses, grain elevators, mechanical equipment, etc. But it is the duty of the national government to improve harbors, dredge streams, dig canals for navigation and irrigation, erect levees to protect the back country, and build locks and dams when needed.

It is the responsibility of the government to provide port facilities like docks, piers, warehouses, grain elevators, mechanical equipment, etc. However, it is the obligation of the national government to enhance harbors, deepen rivers, create canals for navigation and irrigation, construct levees to safeguard the inland areas, and build locks and dams when necessary.

These are the premises from which the Hudson Dock Board reasons that the cost of construction and maintenance of the New Orleans Navigation Canal and Inner Harbor should be assumed by Uncle Sam. It will leave no stone unturned to have him assume the obligation.

These are the reasons why the Hudson Dock Board believes that Uncle Sam should cover the construction and maintenance costs of the New Orleans Navigation Canal and Inner Harbor. They will do everything possible to make sure he takes on that responsibility.

The Navigation Canal is essentially a harbor improvement. It enables practically unlimited industrial development and commercial interchange. It is an important link in the Intracoastal Canal system which the government is developing to provide an inland waterway from Boston, Mass. to Brownsville, Tex., and, with the dredging of a channel through Lake Pontchartrain to the Gulf, a problem which U.S. engineers have been studying for some time and an undertaking which they have found feasible, it will put the nation's second port about fifty miles closer to the sea. It has considerable military value. Its purpose is, therefore, national; the local interests are secondary.

The Navigation Canal is basically an upgrade to the harbor. It supports nearly unlimited industrial growth and commercial exchange. It plays a crucial role in the Intracoastal Canal system that the government is developing to create an inland waterway from Boston, Mass., to Brownsville, Tex. With the dredging of a channel through Lake Pontchartrain to the Gulf—a project U.S. engineers have been studying for a while and have deemed feasible—it will bring the nation's second-largest port about fifty miles closer to the ocean. It also has significant military importance. Therefore, its purpose is national; local interests come second.

It is no new principle, this obligation of the government. That duty has been recognized by Congress since the United States was.

It’s not a new idea that the government has this obligation. Congress has acknowledged that duty since the founding of the United States.

Any rivers and harbors bill will show great and useful expenditure for waterways improvement.

Any rivers and harbors bill will showcase significant and beneficial spending for the enhancement of waterways.

The Panama Canal, built by the government, is the greatest example.

The Panama Canal, constructed by the government, is the best example.

Coming closer home, there is south pass at the mouth of the Mississippi. A bar, with a nine-foot depth of water, blocked the commerce of New Orleans. Under the rivers and harbors act of 1875, Captain James B. Eads was paid $8,000,000 for building the famous jetties to provide a 26-foot channel. Since then, the channel has been deepened to 33 feet.

Coming closer to home, there's South Pass at the mouth of the Mississippi. A bar with a nine-foot water depth was blocking the commerce of New Orleans. Under the Rivers and Harbors Act of 1875, Captain James B. Eads was paid $8,000,000 to build the famous jetties that created a 26-foot channel. Since then, the channel has been deepened to 33 feet.

In more recent years, the government began to improve southwest pass, the westernmost mouth of the Mississippi. A nine-foot bar was there, too. To increase the depth to 35 feet, the government spent, up to 1919, about $15,000,000, and is still spending.

In recent years, the government started working on improving Southwest Pass, the westernmost outlet of the Mississippi River. There was a nine-foot bar there as well. To boost the depth to 35 feet, the government has spent about $15,000,000 by 1919, and continues to invest in it.

"Just as the purpose of the improvements of these channels was to bridge the distance from deep water to deep water" says Arthur McGuirk, special counsel of the Dock Board, in a report of February 23, 1921, to the Board, "so is the purpose of the Navigation Canal to bridge the distance from the deep water of the river to the proposed deep water channel of the lake."

"Just as the goal of improving these channels was to connect deep water to deep water," says Arthur McGuirk, special counsel of the Dock Board, in a report dated February 23, 1921, to the Board, "the goal of the Navigation Canal is to connect the deep water of the river with the planned deep water channel of the lake."

In the annual report of the chief of engineers, U.S.A., for the fiscal year ending June 30, 1919, are listed the following waterways improvements and canal developments being made by the Government:

In the annual report of the chief of engineers, U.S.A., for the fiscal year ending June 30, 1919, the following waterway improvements and canal developments are listed as being made by the Government:

"Operating and care of canals, $3,596,566.20.

"Operating and care of canals, $3,596,566.20."

"Cape Cod canal, purchase authorized, river and harbors act, August 8, 1917, cost not exceeding $10,000,000, and enlargement $5,000,000.

"Cape Cod Canal, purchase approved, River and Harbors Act, August 8, 1917, cost not to exceed $10,000,000, and expansion $5,000,000."

"Jamaica Bay channel, 500 feet width, 10 feet depth, to be further increased to 1,500 feet width entrance channel and 1,000 feet interior channel, maximum depth of 30 feet, length of channel 12 miles. Approved estimate of cost to United States not to exceed $7,430,000. River and harbors act of June 25, 1910. House document No. 1488, 60th Congress.

"Jamaica Bay channel, 500 feet wide, 10 feet deep, will be expanded to a 1,500-foot wide entrance channel and a 1,000-foot interior channel, with a maximum depth of 30 feet and a channel length of 12 miles. The approved cost estimate for the United States will not exceed $7,430,000. River and Harbors Act of June 25, 1910. House Document No. 1488, 60th Congress."

"Ambrose channel, New York harbor, appropriation new work and maintenance, $4,924,530.88, year ending June 30, 1919.

"Ambrose channel, New York harbor, funding for new work and maintenance, $4,924,530.88, year ending June 30, 1919."

"Bay Ridge and Red Hook channels, $4,471,100.

"Bay Ridge and Red Hook channels, $4,471,100."

"Locks and dams on Coosa River, Alabama-Georgia, $1,700,918.21.

"Locks and dams on the Coosa River, Alabama-Georgia, $1,700,918.21."

"Channel connecting Mobile Bay and Mississippi Sound, act of June 13, 1902, original project, for construction and maintenance total cost $7,809,812.42.

"Channel connecting Mobile Bay and Mississippi Sound, act of June 13, 1902, original project, for construction and maintenance total cost $7,809,812.42."

"Black Warrior river, 17 locks, Mobile to Sanders' Ferry, 443 miles. Total to date, $10,101,295.54. Indefinite appropriation.

"Black Warrior River, 17 locks, Mobile to Sanders' Ferry, 443 miles. Total so far: $10,101,295.54. Indefinite funding."

"Sabine Pass, act of June 19, 1906 and prior, channels, turning basins and jetties, March 2, 1907, and previously, total appropriations, $1,875,506.78.

"Sabine Pass, act of June 19, 1906 and earlier, channels, turning basins and jetties, March 2, 1907, and before, total appropriations, $1,875,506.78."

"Trinity River, Galveston, north, 37 miles locks and dams. Act of June 13, 1902, house document 409, 56th congress. Estimate cost complete canalization of river, revised 1916, in addition to amounts expended prior to rivers and harbors act of July, 1916, in round numbers $13,500,000. Estimated annual cost of maintenance, $280,000.

"Trinity River, Galveston, north, 37 miles locks and dams. Act of June 13, 1902, house document 409, 56th congress. Estimated total cost for completing the canalization of the river, revised in 1916, in addition to the amounts spent before the rivers and harbors act of July 1916, is approximately $13,500,000. Estimated annual maintenance cost is $280,000."

"Houston to Galveston ship canal, act of July 25, 1912, and July 27, 1916. Cost, $3,850,000. Annual maintenance, $325,000.

"Houston to Galveston ship canal, act of July 25, 1912, and July 27, 1916. Cost, $3,850,000. Annual maintenance, $325,000."

"Rock Island Rapids (Ill.) and LeClaire canal, rock excavations, etc., act of March 2, 1907, dams, 3 locks, etc., to June 30, $31,180,085.62 and $130,158.03 for 1 year maintenance.

"Rock Island Rapids (Ill.) and LeClaire Canal, rock excavations, etc., act of March 2, 1907, dams, 3 locks, etc., to June 30, $31,180,085.62 and $130,158.03 for 1 year maintenance."

"Keokuk, Iowa (formerly Des Moines Rapids canal), old project (act of June 23, 1866), $4,574,950.00.

"Keokuk, Iowa (formerly Des Moines Rapids canal), old project (act of June 23, 1866), $4,574,950.00."

"Muscle Shoals Canal (Tennessee River), 36.6 miles, depth 5 feet, $4,743,484.50. Exclusive of cost of nitrate plant.

"Muscle Shoals Canal (Tennessee River), 36.6 miles, depth 5 feet, $4,743,484.50. Excludes the cost of the nitrate plant."

"Locks and dams on Ohio River, act of March 3, 1879, to act of March 2, 1907, including purchase of Louisville and Portland canal, $17,657,273.78.

"Locks and dams on the Ohio River, act of March 3, 1879, to act of March 2, 1907, including the purchase of the Louisville and Portland canal, $17,657,273.78."

"Estimated cost of new work, widening Louisville and Portland canal and changes in dams, $63,731,488. Annual maintenance covering only lock forces and cost of repairs and renewals, $810,000. Act of June 25, 1920, house document 492, 65th congress, first session. Also act of March 4, 1915, house document 1695, 64th congress, second session.

"Estimated cost of new work, widening the Louisville and Portland canal and changes in dams, $63,731,488. Annual maintenance covering only lock personnel and costs for repairs and renewals, $810,000. Act of June 25, 1920, House Document 492, 65th Congress, First Session. Also Act of March 4, 1915, House Document 1695, 64th Congress, Second Session."

"Ship channel connecting waters of great lakes, including St. Mary's river (Sault Sainte Marie locks), St. Clair and Detroit rivers, locks and dams, total appropriations to June 30, 1919, $26,020,369.68. Estimate new work, $24,085.

"Ship channel connecting the waters of the Great Lakes, including the St. Mary's River (Sault Sainte Marie locks), St. Clair and Detroit Rivers, locks and dams, total appropriations as of June 30, 1919, $26,020,369.68. Estimated cost for new work, $24,085."

"St. Clair river, connecting Lakes St. Clair and Erie, shoalest part was 12-1/2 to 15 feet. Improved at expense of $13,252,254.00. Estimated cost of completion, $2,720,000.

St. Clair River, which links Lakes St. Clair and Erie, has its shallowest area between 12.5 to 15 feet. It was improved at a cost of $13,252,254.00. The estimated cost to complete the work is $2,720,000.

"Niagara river, $15,785,713.07.

Niagara River, $15,785,713.07.

"Los Angeles and Long Beach harbor, $4,492,809.80.

"Los Angeles and Long Beach harbor, $4,492,809.80."

"Seattle, Lake Washington ship canal, in city of Seattle, from Puget Sound to lake; original project, act of August 18, 1894. Double lock and fixed dam. Length about 8 miles. Total appropriation to date, $3,345,500.00."

"Seattle, Lake Washington Ship Canal, in the city of Seattle, connecting Puget Sound to the lake; original project, act of August 18, 1894. Double lock and fixed dam. Length is about 8 miles. Total funding to date is $3,345,500.00."

These are only some of the larger projects. Of course there are a great number of such works, all over the country, constructed and maintained by the United States, sometimes alone, and again by co-operation with local authorities.

These are just a few of the larger projects. There are many more like these throughout the country, built and maintained by the United States, sometimes on its own and other times in collaboration with local authorities.

New Orleans was founded because of the strategic value of the location, both from a commercial and a military standpoint. The power that holds New Orleans commands the Mississippi Valley—a fact which the British recognized in 1812 when they tried to capture it. Likewise, when Farragut captured New Orleans, he broke the backbone of the Confederacy.

New Orleans was established due to its strategic importance, both for trade and military purposes. Whoever controls New Orleans controls the Mississippi Valley—a point recognized by the British in 1812 when they attempted to take it. Similarly, when Farragut captured New Orleans, he undermined the core of the Confederacy.

Mr. McGuirk, in the report to which reference has already been made, discusses the military importance of the Industrial Canal as follows:

Mr. McGuirk, in the report mentioned earlier, talks about the military significance of the Industrial Canal as follows:

"A ship canal, connecting the river and the lake at New Orleans will be a Panama or a Kiel canal, in miniature, and double in effectiveness the naval forces defending the valley, as they may be moved to and fro in the canal from the river to the lake. On this line of defense heavy artillery on mobile mounts can be utilized, in addition to heavy ships of the line. That is to say, just as light-draft monitors, and even floats carrying high-powered rifles were used effectively on the Belgian coast; on the Piave river in Italy, and on the Tigris in Mesopotamia, so may they be used in the defense of the valley, on any canal connecting the Mississippi river and Lake Pontchartrain. Changes are constantly occurring in the details of work of defense due to development of armament, munitions and transport. The never-ending development of range and caliber has assumed vast importance, particularly with reference to the effect on the protection of cities from bombardment. Naval guns are now capable of hurling projectiles to distances of over 50,000 yards, 28 to 30 miles. For the protection of the valley we should have at New Orleans armament mounted on floating platforms which will hold the enemy beyond the point where his shells may not reach their objective, and in this operation the canal, affording means of rapid transport, will render invaluable and essential service."

"A ship canal connecting the river and the lake in New Orleans will be a smaller version of the Panama or Kiel canals, and it will double the effectiveness of the naval forces defending the valley, as they can quickly move between the river and the lake. On this defensive line, heavy artillery on mobile mounts can be used, along with powerful warships. Specifically, just as light-draft monitors and floating platforms armed with high-powered rifles were effectively used on the Belgian coast, the Piave River in Italy, and the Tigris in Mesopotamia, they can also be applied in defending the valley along any canal connecting the Mississippi River to Lake Pontchartrain. The details of defense work are constantly changing due to advancements in weapons, munitions, and transport. The ongoing development of range and caliber is crucial, especially regarding protecting cities from bombardment. Naval guns can now launch projectiles over 50,000 yards, about 28 to 30 miles. For the valley's defense, we should have armament mounted on floating platforms in New Orleans that can keep the enemy at a distance where their shells can't reach their targets, and the canal will provide rapid transport that will be essential for this operation."

A country's ports are its watergates. Their local importance is comparatively small. They are important or not according to whether they are on trade routes, and easily accessible. An infinitesimal part of the trade that flows through New Orleans originates or terminates there. The back country gets the bulk of the business. The development of the harbor is for the service of the interior. It is essentially national.

A country's ports are its gateways to the sea. Their local significance is relatively minor. They're important or not based on whether they’re on trade routes and how easy they are to access. A tiny fraction of the trade that passes through New Orleans actually starts or ends there. Most of the business comes from the surrounding areas. The growth of the harbor primarily serves the inland regions. It is fundamentally a national concern.

From every point of view, therefore, it is the duty of the national government to take over the Navigation Canal and release the monies of the state so they may be devoted to the improvement of the waterway with wharves and other works in aid of the nation's commerce.

From every perspective, it's the responsibility of the national government to take control of the Navigation Canal and free up state funds so they can be used to enhance the waterway with docks and other projects that support the nation's trade.

S. S. NEW ORLEANS, First Ship Launched
S. S. NEW ORLEANS
First Ship Launched by Doullut & Williams Shipbuilding Co.
S.S. NEW ORLEANS
First Ship Launched by Doullut & Williams Shipbuilding Co.
S. S. GAUCHY, First Ship Launched on Canal
S. S. GAUCHY
First Ship Launched on Canal
S. S. GAUCHY
First Ship Launched on the Canal

ECONOMIC ASPECT OF CANAL.

CANAL'S ECONOMIC IMPACT.

Tied to the Mississippi Valley by nearly 14,000 miles of navigable waterways, and the largest port on the gulf coast and the most centrally situated with respect to the Latin-American and Oriental trade, New Orleans is naturally a market of deposit. The development of the river service, in which the government set the pace in 1918, is restoring the north and south flow of commerce, after a generation of forced haul east and west, along the lines of greatest resistance; and New Orleans has become the nation's second port. Its import and export business in 1920 amounted to a billion dollars.

Connected to the Mississippi Valley by nearly 14,000 miles of navigable waterways, and boasting the largest port on the Gulf Coast as well as the most central location for Latin American and Asian trade, New Orleans is naturally a major hub for commerce. The enhancement of river services, which the government initiated in 1918, is revitalizing the north-south flow of trade, after years of being forced to move goods east and west along the most challenging routes; as a result, New Orleans has become the nation’s second-largest port. In 1920, its import and export activities totaled a billion dollars.

Ninety per cent of the nation's wealth is produced in the Valley, of which New Orleans is the maritime capital. It is the source of supply of wheat, corn, sugar, lumber, meat, iron, coal, cotton oil, agricultural implements, and many other products. It is a market for the products of Latin-America and the Orient.

Ninety percent of the country's wealth is generated in the Valley, with New Orleans serving as its maritime capital. It supplies wheat, corn, sugar, lumber, meat, iron, coal, cotton oil, agricultural tools, and many other goods. It also acts as a marketplace for products from Latin America and the East.

With the co-ordination of river, rail and maritime facilities, and sufficient space for development, it is inevitable that New Orleans should become a mighty manufacturing district. Such enterprises as coke ovens, coal by-product plants, flour mills, iron furnaces, industrial chemical works, iron and steel rolling mills, shipbuilding and repair plants, automobile factories and assembling plants, soap works, packing plants, lumber yards, building material plants and yards, warehouses of all kinds, etc., would be encouraged to establish here if given the proper facilities, and the Industrial Canal is the answer to this need, for under the laws of Louisiana private industries can not acquire or lease property on the river front. Even before the completion of the Canal, the dream has been partly realized—with the establishment of two large shipyards on the Canal, which otherwise would have gone somewhere else, and the building of the army supply base on the same waterway, largely due to the enterprise of the port.

With the coordination of river, rail, and maritime facilities, and enough space for development, it's only natural that New Orleans should become a major manufacturing hub. Industries like coke ovens, coal by-product plants, flour mills, iron furnaces, industrial chemical plants, iron and steel rolling mills, shipbuilding and repair facilities, automobile factories and assembly plants, soap manufacturing, packing plants, lumber yards, building material facilities and yards, warehouses of all kinds, and more would be encouraged to set up here if given the right facilities. The Industrial Canal addresses this need, as Louisiana laws prevent private industries from acquiring or leasing property along the riverfront. Even before the Canal was finished, part of this vision became a reality with the establishment of two large shipyards on the Canal, which would have otherwise been built elsewhere, and the construction of the army supply base on the same waterway, largely thanks to the port's initiative.

As Colonel E. J. Dent, U.S. district engineer, said before the members' council of the Association of Commerce, February 17, 1921, the Industrial Canal will be the means of removing the handicaps on New Orleans' foreign trade. "I hold no brief for the Industrial Canal," he continued, "but speaking as one who has no interest in it but who has studied the question deeply, I will say that five years from now, if you develop the Industrial Canal as it should be developed, you will be wondering how on earth you ever got along without it."

As Colonel E. J. Dent, U.S. district engineer, stated before the members' council of the Association of Commerce on February 17, 1921, the Industrial Canal will help remove the barriers to New Orleans' foreign trade. "I have no personal stake in the Industrial Canal," he continued, "but speaking as someone who has no vested interest yet has thoroughly researched the matter, I can say that five years from now, if you develop the Industrial Canal the way it needs to be developed, you’ll be amazed at how you ever managed without it."

Before the constitutional convention of Louisiana, on April 4, 1921, he elaborated this thought as follows:

Before the Louisiana constitutional convention on April 4, 1921, he expanded on this idea as follows:

"The Industrial Canal will furnish to New Orleans her greatest need. It should be possible to build docks there where the entire cargo for a ship may be assembled. Under present conditions in the river it is often necessary for a ship to go to three or four docks to get a complete cargo.

"The Industrial Canal will provide New Orleans with its greatest need. It should be possible to build docks there where all the cargo for a ship can be gathered. Currently, due to conditions in the river, a ship often has to go to three or four different docks to collect a full cargo."

"Last year there passed through the port of New Orleans 11,000,000 tons of freight valued at $1,100,000,000. This required 1,000 loaded freight cars a day passing over the docks, fifteen solid trainloads of freight each day. The inbound freight was about 5,000,000 tons and the outbound about 6,000,000. This is extraordinarily well balanced for any port in the United States. This would mean about 5,000 steamers of an average capacity of 2,000 tons.

"Last year, the port of New Orleans handled 11,000,000 tons of freight worth $1,100,000,000. This meant 1,000 loaded freight cars moved across the docks every day, equivalent to fifteen full trainloads of freight each day. The incoming freight was around 5,000,000 tons, while the outgoing freight was about 6,000,000 tons. This balance is remarkably good for any port in the United States. It translates to roughly 5,000 ships, each with an average capacity of 2,000 tons."

"The proper place to assemble a cargo is on the docks. Last year the Dock Board allowed but seven days for assembling the cargo for a ship—only seven days for assembling 250 carloads of stuff. Then last year the Dock Board would not assign a ship a berth until it was within the jetties. These are some of the difficulties.

"The right place to gather cargo is at the docks. Last year, the Dock Board permitted only seven days to load the cargo for a ship—just seven days to organize 250 carloads of goods. Additionally, last year the Dock Board wouldn't assign a ship a berth until it was inside the jetties. These are some of the challenges."

"What New Orleans needs is 50 to 100 per cent more facilities for her port. Last summer the port of New Orleans was congested, but she held her own because other ports were congested. But that may not occur again. If you want to hold your own you must improve your facilities."

"What New Orleans needs is 50 to 100 percent more facilities for its port. Last summer, the port of New Orleans was congested, but it managed to stay competitive because other ports were also congested. However, that might not happen again. If you want to stay competitive, you need to enhance your facilities."

Wharves can be built a great deal cheaper on the fixed-level canal, with its stable banks. And that is the only place specialized industries can secure water frontage.

Wharves can be built much cheaper on the fixed-level canal, with its stable banks. And that's the only place specialized industries can get water frontage.

Sooner or later the government will adopt the free port system, by which other countries have pushed their foreign trade to such heights. Free ports have nothing to do with the tariff question. They are simply zones established in which imports may be stored, re-packed, manufactured and then exported without the payment of duties in the first place, duties for the refund of which the present law makes provision, but only after vexatious delays and expensive red tape. Precautions are taken to prevent smuggling. In the preliminary investigations and recommendations made by the Department of Commerce, New York, San Francisco and New Orleans have been designated as the first free ports that should be established. With the ample space it offers for expansion, the Industrial Canal is the logical location for the free zone.

Sooner or later, the government will implement the free port system, which has allowed other countries to boost their foreign trade significantly. Free ports are not related to tariff issues. They are simply designated areas where imports can be stored, repackaged, manufactured, and then exported without having to pay duties upfront, although the current law allows for refunds, but only after frustrating delays and complicated procedures. Measures are in place to prevent smuggling. In the initial investigations and recommendations made by the Department of Commerce, New York, San Francisco, and New Orleans have been identified as the first locations for establishing free ports. Given its ample space for expansion, the Industrial Canal is the ideal location for the free zone.

Counting the $15,000,000 contract of the Doullut & Williams Shipyard, the $5,000,000 contract of the Foundation Company Shipyard, the $13,000,000 army supply base, the Industrial Canal has already brought $33,000,000 of development to New Orleans, 60 per cent more than the cost of the undertaking. More than half of this was for wages and material purchased in New Orleans. The state has gained hundreds of thousands of dollars in taxes. About half the money spent on the Industrial Canal was wages; and helped to increase the population, force business to a new height, raise the value of real estate, and make New Orleans the financial stronghold of the South.

Counting the $15,000,000 contract with Doullut & Williams Shipyard, the $5,000,000 contract with Foundation Company Shipyard, and the $13,000,000 army supply base, the Industrial Canal has already brought $33,000,000 in development to New Orleans, which is 60 percent more than the cost of the project. More than half of this amount was spent on wages and materials bought in New Orleans. The state has earned hundreds of thousands of dollars in taxes. About half of the money spent on the Industrial Canal went to wages, which helped increase the population, boost business to new levels, raise real estate values, and establish New Orleans as the financial center of the South.

What indirect bearing on bringing scores of other industries to New Orleans, which did not require a location on the waterway, the building of the Industrial Canal has had, there is no way of ascertaining.

What indirect impact the construction of the Industrial Canal has had on attracting many other industries to New Orleans, which didn't need to be situated along the waterway, is impossible to determine.

Since the work was begun the Dock Board has received inquiries from a hundred or so large enterprises regarding the cost of a site on the canal. That they have not established there is due to the fact that the Canal has not yet been completed, and the Dock Board has announced no policy.

Since the work began, the Dock Board has received inquiries from around a hundred large companies about the cost of a site on the canal. The reason they haven't set up there is that the canal isn't finished yet, and the Dock Board hasn't announced any policies.

It is now working on that question with representatives of the Association of Commerce, Joint Traffic Bureau, Clearing House Association, Cotton Exchange, Board of Trade, and Steamship Association.

It is now addressing that question with representatives from the Commerce Association, Joint Traffic Bureau, Clearing House Association, Cotton Exchange, Board of Trade, and Steamship Association.

There is no use trying to guess at what the policy will be. It is too big a problem, and must be worked out very carefully, with reference to a confusing tangle of cross-interests.

There’s no point in trying to guess what the policy will be. It’s too big of a problem and needs to be worked out very carefully, considering a confusing mess of overlapping interests.

Two principles have already been categorically laid down by President Hudson and endorsed by the Dock Board at an open meeting of April 5, 1921, with the commercial and industrial interests of the city, planning for the policy of the Canal:

Two principles have already been clearly established by President Hudson and approved by the Dock Board during an open meeting on April 5, 1921, in collaboration with the city's commercial and industrial interests, as they plan the Canal's policy:

First, that the development of the Canal shall not be at the expense of the river. Wharf development will be pushed on the river to meet the legitimate commercial demands of the port. No one is to be forced on the Canal. That would hurt the port. It is not thought that such forced development would be necessary, and the Canal will be kept open for the specialized industries that can best use the co-ordination of the river, rail and maritime facilities.

First, the development of the Canal should not come at the expense of the river. Wharf development will be prioritized along the river to satisfy the legitimate commercial demands of the port. No one should be pressured into using the Canal. That would negatively impact the port. It is believed that such forced development won't be necessary, and the Canal will remain available for the specialized industries that can make the best use of the coordination between the river, rail, and maritime facilities.

Second, that the control of the property along the Canal, owned by the Dock Board, will not go out of the hands of the Board. There will be long-term leases—up to ninety-nine years, but no outright sale. Furthermore, the private land on the other side of the Dock Board's property will not be allowed to be developed at the expense of the state's interests. So the frontage on the Canal will be developed before there is any extensive construction of lateral basins and slips.

Second, the Dock Board will keep control of the property along the Canal. There will be long-term leases—up to ninety-nine years—but no outright sales. Additionally, the private land on the other side of the Dock Board's property won't be developed in a way that harms the state's interests. Therefore, the area along the Canal will be developed before any major construction of lateral basins and slips begins.

What will be the rate charged for a site? Will it be based on the actual cost of the Canal and its maintenance? Or will the state consider it a business investment like a road or street, and charge the property owners thereon less than the cost of construction, collecting the difference in the general progress? That, too, is a question which calls for considerable study before it can be answered.

What will the fee be for a site? Will it be determined by the actual cost of the Canal and its upkeep? Or will the state treat it as a business investment like a road or street, charging property owners less than the construction cost and making up the difference through overall progress? That's another question that requires a lot of analysis before it can be resolved.

With the Industrial Canal open, sites available on long leases to business enterprise, and with our tax laws relating to the processes of industry and commerce revised and made more favorable, New Orleans will enter a period of expansion and development on a scale hardly yet dreamed of by her most far-visioned citizens, with enlarged profit and opportunity for all her people.

With the Industrial Canal now open, there are long-term sites available for businesses, and our tax laws concerning industry and commerce have been updated to be more favorable. New Orleans is about to enter a phase of growth and development that even its most forward-thinking citizens could hardly have imagined, bringing increased profits and opportunities for everyone.

New taxable wealth will be created rapidly. New needs for taxable property will arise. The tax burden on all will be distributed more widely and when contrasted with the earning power of such property will become less and less of a burden.

New taxable wealth will be created quickly. New demands for taxable property will emerge. The tax burden on everyone will be spread out more evenly and, when compared to the earning potential of such property, will become less and less of a burden.

This will be so because the water frontage through which the Canal is being created for the attraction of many enterprises which cannot locate on the river front, is all within the limits of the city of New Orleans.

This will be the case because the waterfront where the Canal is being developed to attract many businesses that can't set up along the riverfront is all within the city limits of New Orleans.

With this Canal in operation, New Orleans will possess to the fullest degree the three great systems of port operation: Public ownership and operation of the river harbor facilities; public ownership of the land and private operation of facilities on the Industrial Canal; and private ownership of the land and private operation of the facilities on the new channel to the sea.

With this Canal up and running, New Orleans will fully have the three major systems of port operation: public ownership and management of the river harbor facilities; public ownership of the land with private management of the facilities on the Industrial Canal; and private ownership of the land alongside private management of the facilities on the new channel to the sea.

No other port in the country has the capacity for this trinity of port systems.

No other port in the country can handle this combination of port systems.

No other port possesses such a hinterland as is embraced within the Mississippi Valley, nor so extensive and so complete a system of easy-grade railroads and navigable waterways penetrating its hinterland.

No other port has such a rich hinterland as the Mississippi Valley, nor such a vast and comprehensive network of easy-to-access railroads and navigable waterways reaching deep into its territory.

No other port holds so strategic a position in the path of the new trade routes connecting the region of greatest productivity with the new markets of greatest promise in Latin-America and the Orient.

No other port has such a strategic position along the new trade routes linking the most productive area with the most promising new markets in Latin America and the Orient.

LOCK GATE
LOCK GATE
There are Ten Like This
LOCK GATE
There are ten like this.

CONSTRUCTION COSTS AND CONTRACTORS.

Construction Costs and Contractors.

Everything is relative. Looking at the total, some may think that the cost of the Industrial Canal is large. So it is—compared with the cost of an irrigation ditch through a 20-acre farm. But comparing the cost with the wealth it is invested to produce—has already begun to produce—it dwindles to a mere percentage. And a comparison of construction costs on the Industrial Canal with similar work done elsewhere during the same time is very much in favor of the former.

Everything is relative. When you consider the whole picture, some people might think the cost of the Industrial Canal is high. And it is—if you compare it to the cost of creating an irrigation ditch for a 20-acre farm. But when you compare the cost to the wealth it’s meant to generate—and is already starting to generate—it becomes just a small percentage. Plus, if you compare the construction costs of the Industrial Canal to similar projects done elsewhere at the same time, the Industrial Canal comes out ahead.

Witness the following figures shown in the books of the engineering department of the Dock Board:

Witness the following figures displayed in the engineering department records of the Dock Board:

Dredging, including the canal prism and the excavation of the sites of the bridge foundations, siphon and lock, averaged .2784 cents a cubic yard. The highest cost was in the lock section, from which 609,302 cubic yards were excavated at an average cost of .3796 cents a cubic yard. On the siphon and Florida Walk bridge section, including two other deep cuts, the 814,919 cubic yards excavated cost an average of .2607 cents a cubic yard. On the Louisville & Nashville bridge section, the 1,023,466 cubic yards excavated cost an average of .2363 cents a cubic yard. From there to the lake, 1,673,787 cubic yards, the average cost was .2411 cents. Dredging costs were below the original estimates when labor and supplies were 50 per cent cheaper.

Dredging, which includes the canal prism and the digging of the bridge foundation sites, siphon, and lock, averaged 0.2784 cents per cubic yard. The highest cost was in the lock area, where 609,302 cubic yards were dug out at an average cost of 0.3796 cents per cubic yard. For the siphon and Florida Walk bridge section, including two other deep cuts, the 814,919 cubic yards excavated cost an average of 0.2607 cents per cubic yard. In the Louisville & Nashville bridge section, the 1,023,466 cubic yards excavated cost an average of 0.2363 cents per cubic yard. From there to the lake, 1,673,787 cubic yards were excavated at an average cost of 0.2411 cents. Dredging costs were lower than the original estimates when labor and supplies were 50 percent cheaper.

The 90,000 cubic yards of concrete in the lock cost an average of $22.50 a cubic yard. This includes cost of material, mixing, building forms, pouring and stripping forms. Mixing and pouring, from the time the material was handled from the storehouse or pile, averaged $1.20 a cubic yard. It would be hard to find cheaper concrete on a work of similar magnitude anywhere, say the engineers.

The 90,000 cubic yards of concrete used in the lock cost about $22.50 per cubic yard. This covers the costs of materials, mixing, building forms, pouring, and taking down the forms. Mixing and pouring, from the moment the material was taken from the storehouse or pile, averaged $1.20 per cubic yard. Engineers say it's tough to find cheaper concrete for a project of similar size anywhere.

On the siphon the concrete work cost more, because it was a subterranean job, with elaborate shaping. The price there was $35 a cubic yard, in place, including material and form work.

On the siphon, the concrete work was more expensive because it was an underground job with intricate shaping. The price there was $35 per cubic yard, installed, which included materials and forming work.

To drive the 17,000 bearing piles and 7,000 traveling piles on which the lock is floated, cost an average of 15 cents a running foot. This does not include the cost of the piling.

To drive the 17,000 bearing piles and 7,000 traveling piles that support the lock, it costs an average of 15 cents per linear foot. This doesn't include the cost of the piles themselves.

Construction steel cost .12 cents a pound, and erection around 4 cents. These were standard prices.

Construction steel cost 12 cents a pound, and erection was about 4 cents. These were standard prices.

The lock gates, weighing 5,285,000 pounds, cost $845,600, in place. This does not include opening and closing machinery.

The lock gates, which weigh 5,285,000 pounds, cost $845,600 to install. This price does not include the machinery for opening and closing them.

Three of the bascule bridges crossing the Canal, weighing 1,600,000 pounds each, cost $250,000 each, erected. The fourth bridge, near the lock, weighing 1,000,000 pounds, cost $200,000, erected. This is for superstructure only—it does not include the foundation.

Three of the bascule bridges crossing the Canal, each weighing 1,600,000 pounds, cost $250,000 to build. The fourth bridge, near the lock, weighs 1,000,000 pounds and cost $200,000 to build. This is just for the superstructure—it doesn’t include the foundation.

The emergency dam bridge, weighing 350,373 pounds, and its 108,256 pounds of turning machinery, cost $96,728, in place. Hoisting machinery cost $40,000 more.

The emergency dam bridge, weighing 350,373 pounds, along with its 108,256 pounds of turning machinery, cost $96,728 to install. The hoisting machinery added another $40,000 to the total.

The eight girders of the emergency dam, weighing 90 tons each, at $240 a ton, cost $172,800.

The eight girders of the emergency dam, weighing 90 tons each, at $240 a ton, cost $172,800.

Machinery for working the ten lock gates, the eight filling gates, and the six capstans—twenty-four 52-horse power electric motors—cost $21,479, f.o.b. New Orleans.

Machinery for operating the ten lock gates, the eight filling gates, and the six capstans—twenty-four 52-horsepower electric motors—cost $21,479, f.o.b. New Orleans.

The plant for unwatering the lock, consisting of one pump with a capacity of 15,000 gallons a minute, and two with a capacity of 250 gallons each, cost, erected, $11,000.

The system for draining the lock, which includes one pump with a capacity of 15,000 gallons per minute and two smaller pumps with a capacity of 250 gallons each, was installed at a cost of $11,000.

Total mechanical equipment used on the Industrial Canal weighs 14,500 tons. Its cost, including power-house, electrical connections, etc., is $1,516,000.

Total mechanical equipment used on the Industrial Canal weighs 14,500 tons. Its cost, including the powerhouse, electrical connections, etc., is $1,516,000.

Plant and equipment for building the Canal, including locomotives, cranes, piledrivers, dredges, tools, etc., cost $781,232. Depreciation, up to February, 1921, is set at $266,874, leaving a balance of $514,358, carried as assets. Much of this has already been sold, and more will be disposed of.

Plant and equipment for building the Canal, including locomotives, cranes, piledrivers, dredges, tools, etc., cost $781,232. Depreciation, up to February 1921, is set at $266,874, leaving a balance of $514,358, listed as assets. Much of this has already been sold, and more will be sold off.

Following are the firms that executed contracts on the Industrial Canal:

Following are the companies that signed contracts on the Industrial Canal:


OUTSIDE NEW ORLEANS.

Outside New Orleans.

Lock gates and emergency dam girders: McClintic-Marshall Construction Company, Pittsburg, Pa.; designed by Goldmark & Harris Company, New York.

Lock gates and emergency dam girders: McClintic-Marshall Construction Company, Pittsburgh, PA; designed by Goldmark & Harris Company, New York.

Filling gates: Coffin Valve Company, Indian Orchard, Mass.

Filling gates: Coffin Valve Company, Indian Orchard, MA.

Miscellaneous valve equipment: Ludlow Valve Company, Troy, N.Y.

Miscellaneous valve equipment: Ludlow Valve Company, Troy, NY.

Capstans: American Engineering Company, Philadelphia, Pa.

Capstans: American Engineering Company, Philadelphia, PA.

Mooring posts: Shipbuilding Products Company, New York, N.Y.

Mooring posts: Shipbuilding Products Company, New York, NY.

Miter gate moving machines: Fawcus Machine Works, Pittsburg, Pa.

Miter gate moving machines: Fawcus Machine Works, Pittsburgh, PA.

Motors, control boards and miscellaneous electrical equipment: General Electric Company, Schenectady, N.Y.

Motors, control boards, and various electrical equipment: General Electric Company, Schenectady, N.Y.

Bridge crane and bascule bridges: Bethlehem Steel Corporation, Steelton, Pa. Former designed by Goldmark & Harris Company, New York, N.Y.; latter, by Strauss Bascule Bridge Company, Chicago, Ill.

Bridge cranes and bascule bridges: Bethlehem Steel Corporation, Steelton, Pa. The former was designed by Goldmark & Harris Company, New York, N.Y.; the latter, by Strauss Bascule Bridge Company, Chicago, Ill.

Steel sheet piling: Lackawanna Steel Company, Buffalo, New York.

Steel sheet piling: Lackawanna Steel Company, Buffalo, New York.

Hoists and cranes: Orton & Steinbrenner, Huntington, Ind.; American Hoist and Derrick Company, St. Paul, Minn.

Hoists and cranes: Orton & Steinbrenner, Huntington, IN; American Hoist and Derrick Company, St. Paul, MN.

Conveyor equipment: Webster Company, Tiffany, Ohio; Barker-Greene Company, Aurora, Ill.

Conveyor equipment: Webster Company, Tiffany, Ohio; Barker-Greene Company, Aurora, Illinois.

Woodworking machinery: Fay & Egan Company, Cincinnati, Ohio.

Woodworking machinery: Fay & Egan Company, Cincinnati, Ohio.

Pipe: U.S. Cast Iron Pipe Company, Birmingham, Ala.

Pipe: U.S. Cast Iron Pipe Company, Birmingham, AL.

Lumber and piling: Hammond Lumber Company, Hammond, La.; Great Southern Lumber Company, Bogalusa, La.

Lumber and piling: Hammond Lumber Company, Hammond, LA; Great Southern Lumber Company, Bogalusa, LA.

Dredges: Bowers Southern Dredging Company, Galveston, Tex.; Atlantic, Gulf and Pacific Company, Mobile, Ala.

Dredges: Bowers Southern Dredging Company, Galveston, TX; Atlantic, Gulf and Pacific Company, Mobile, AL.


IN NEW ORLEANS.

In New Orleans.

Cinder and earth fill: Thomas M. Johnson.

Cinder and earth fill: Thomas M. Johnson.

Levee work: Hercules Construction Company; Hampton Reynolds.

Levee work: Hercules Construction Company; Hampton Reynolds.

Sand and gravel: Jahncke Service, Inc.; D. V. Johnston Company.

Sand and gravel: Jahncke Service, Inc.; D. V. Johnston Company.

Cement: Atlas Portland Cement Company, the Michel Lumber and Brick Company being local agents.

Cement: Atlas Portland Cement Company, with the Michel Lumber and Brick Company as local agents.

Lumber and piling: Salmen Brick and Lumber Company; W. W. Carre Company, Ltd.

Lumber and piling: Salmen Brick and Lumber Company; W. W. Carre Company, Ltd.

Coal: Kirkpatrick Coal Company; Tennessee Coal, Iron and R.R. Company.

Coal: Kirkpatrick Coal Company; Tennessee Coal, Iron and Railroad Company.

Reinforcing steel and supplies: Tennessee Coal, Iron and R.R. Company; Ole K. Olsen.

Reinforcing steel and supplies: Tennessee Coal, Iron and Railroad Company; Ole K. Olsen.

Rail and track accessories: A. Marx & Sons.

Rail and track accessories: A. Marx & Sons.

Concrete mixers: Fairbanks Company.

Concrete mixers: Fairbanks Co.

Repairs and castings: Dibert, Bancroft & Ross; Joubert & Goslin Machinery and Foundry Company; Stern Foundry and Machinery Company.

Repairs and castings: Dibert, Bancroft & Ross; Joubert & Goslin Machinery and Foundry Company; Stern Foundry and Machinery Company.

OTHER PORT FACILITIES.

OTHER PORT SERVICES.

"New Orleans," says Dr. Roy S. MacElwee in his book on Port and Terminal Facilities, a subject on which he is considered an authority, "is the most advanced port in America in respect to scientific policy." The Shipping Board echoed the compliment in its report of its port and harbor facilities commission of April, 1919, when it said: "New Orleans ranks high among the ports of the United States for volume of business, and presents a very successful example of the public ownership and operation of port facilities. It is one of the best equipped and co-ordinated ports of the country."

"New Orleans," says Dr. Roy S. MacElwee in his book on Port and Terminal Facilities, a topic where he is regarded as an expert, "is the most advanced port in America regarding scientific policy." The Shipping Board echoed this praise in its report from the port and harbor facilities commission in April 1919, stating: "New Orleans ranks high among U.S. ports for business volume and serves as a successful example of public ownership and operation of port facilities. It is one of the best-equipped and coordinated ports in the country."

New Orleans is the principal fresh water-ocean harbor in the United States. Landlocked and protected from storms, it is the safest harbor on the Gulf Coast. Almost unlimited is the number of vessels that can be accommodated at anchor. Alongside the wharves the water is from thirty to seventy feet deep. The government maintains a 33-foot channel at the mouth of the river.

New Orleans is the main freshwater-ocean harbor in the United States. It's landlocked and shielded from storms, making it the safest harbor on the Gulf Coast. The number of vessels that can anchor here is nearly limitless. The water next to the wharves is between thirty and seventy feet deep. The government keeps a 33-foot channel at the river’s mouth.

The "port of New Orleans" takes in about 21 miles of this harbor on both sides of the river. This gives a river frontage of 41.4 miles, which is under the jurisdiction of the Dock Board, an agency of the state. The Board has, to date, improved seven miles of the east bank of the river with wharves, steel sheds, cotton warehouses, a grain elevator and a coal-handling plant of most modern type, together with other facilities for loading and unloading. Authority has been granted to issue $6,500,000 in bonds for increasing these facilities.

The "port of New Orleans" spans about 21 miles of this harbor on both sides of the river. This provides a river frontage of 41.4 miles, which falls under the authority of the Dock Board, a state agency. So far, the Board has upgraded seven miles of the east bank of the river with docks, steel sheds, cotton warehouses, a grain elevator, and a modern coal-handling plant, along with other facilities for loading and unloading. They have been authorized to issue $6,500,000 in bonds to expand these facilities.

Wharves, elevators and warehouses built by railroads and industrial plants on both sides of the river bring up the total improved portion of the port to 45,000 linear feet, capable of berthing ninety vessels 500 feet long. These facilities are co-ordinated by the only municipally owned and operated belt railroad in the United States, which saves the shipper much money. More than sixty steamship lines connect the port with the world markets; the government barge line, a number of steamboat lines, and twelve railroad lines connect it with the producing and consuming sections of the United States.

Wharves, elevators, and warehouses constructed by railroads and industrial plants on both sides of the river expand the improved area of the port to 45,000 linear feet, allowing for docking of ninety vessels that are 500 feet long. These facilities are managed by the only municipally owned and operated belt railroad in the United States, which saves shippers a significant amount of money. Over sixty steamship lines link the port to global markets; the government barge line, several steamboat lines, and twelve railroad lines connect it with the production and consumption areas of the United States.

BULL WHEEL, Part of Operating Machinery for Lock Gates
BULL WHEEL
Part of Operating Machinery for Lock Gates
BULL WHEEL
Component of Operating Machinery for Lock Gates

Now nearing completion is the Public Coal Handling Plant. Built by the Dock Board to develop the business in cargo coal, it is costing more than $1,000,000.00, and will have a capacity of 25,000 tons. It is of the belt-conveyor type. The plant will be able to:

Now nearing completion is the Public Coal Handling Plant. Built by the Dock Board to grow the cargo coal business, it is costing over $1,000,000.00 and will have a capacity of 25,000 tons. It's a belt-conveyor type facility. The plant will be able to:

  • 1. Unload coal from railway cars into a storage pile;
  • 2. Unload coal from cars into steamers or barges;
  • 3. Load coal from storage pile into steamers or barges;
  • 4. Unload coal from barges into steamers and storage pile;
  • 5. Load coal from barges or storage pile into cars.

At the 750-foot wharf the plant can take care of three ships at one time, with a maximum loading capacity of 800 to 1,000 tons an hour.

At the 750-foot dock, the facility can service three ships simultaneously, with a maximum loading capacity of 800 to 1,000 tons per hour.

Other coaling facilities at the port are furnished by:

Other coaling facilities at the port are provided by:

Illinois Central Railroad: Tipple with capacity of 300 tons an hour;

Illinois Central Railroad: Tipple with a capacity of 300 tons per hour;

New Orleans Coal Company: Two tipples, capacity 150 and 350 tons an hour; floating collier to coal ships while freight is being taken aboard at the wharf, capacity 175 tons an hour; collier, capacity 150 tons an hour.

New Orleans Coal Company: Two tipples, with a capacity of 150 and 350 tons per hour; a floating collier to load coal onto ships while freight is being loaded at the wharf, with a capacity of 175 tons per hour; and a collier with a capacity of 150 tons per hour.

Alabama and New Orleans Transportation Company: Storage plant with loading towers on Lake Borgne canal, just below the city;

Alabama and New Orleans Transportation Company: Storage facility with loading towers on Lake Borgne canal, just south of the city;

American Sugar Refining Company: Coal plant, capacity, 70 tons an hour, for receiving coal from barges and delivering it to boiler house;

American Sugar Refining Company: Coal plant, capacity: 70 tons per hour, for receiving coal from barges and delivering it to the boiler house;

Monongahela River Coal and Coke Company: Floating collier.

Monongahela River Coal and Coke Company: Floating coal carrier.

Fuel oil facilities for bunkering purposes are furnished by:

Fuel oil facilities for bunkering are provided by:

Gulf Refining Company: Storage capacity, 100,000 barrels; bunkering capacity, 800 barrels an hour;

Gulf Refining Company: Storage capacity, 100,000 barrels; bunkering capacity, 800 barrels per hour;

Texas Oil Company: Storage capacity, 150,000 barrels; bunkering capacity, 1,500 barrels an hour;

Texas Oil Company: Storage capacity, 150,000 barrels; bunkering capacity, 1,500 barrels per hour;

Mexican Petroleum Corporation: Bunkering capacity, 1,500 barrels an hour;

Mexican Petroleum Corporation: Bunkering capacity, 1,500 barrels per hour;

Sinclair Refining Company: Storage capacity, 250,000 barrels; bunkering capacity, 2,500 barrels an hour;

Sinclair Refining Company: Storage capacity, 250,000 barrels; bunkering capacity, 2,500 barrels per hour;

Standard Oil Company: Storage capacity, 110,336 barrels; bunkering capacity, 1,000 barrels an hour.

Standard Oil Company: Storage capacity, 110,336 barrels; bunkering capacity, 1,000 barrels per hour.

In the Jahncke Dry Dock and Ship Repair Company, New Orleans has the largest ship repair plant south of Newport News. The plant is on the Mississippi river, adjacent to the Industrial Canal. It has a 1,500-foot wharf and three dry docks, of 6,000, 8,000 and 10,000 tons capacity, respectively. These can be joined for lifting the very large ships. It is equipped with the latest and most powerful machinery, and has been a strong factor in developing the port.

In the Jahncke Dry Dock and Ship Repair Company, New Orleans boasts the largest ship repair facility south of Newport News. The facility is located on the Mississippi River, next to the Industrial Canal. It features a 1,500-foot wharf and three dry docks, with capacities of 6,000, 8,000, and 10,000 tons, respectively. These dry docks can be combined to lift very large ships. It's outfitted with the latest and most powerful machinery, and has played a significant role in the development of the port.

The Johnson Iron Works and Shipbuilding Company likewise has facilities for wood repairing, caulking, painting and scraping of vessels, as well as iron work. It has three docks: one 234 feet long, one 334 feet long, and a small one for lifting barges and small river tugs.

The Johnson Iron Works and Shipbuilding Company also has facilities for repairing wood, caulking, painting, and scraping vessels, in addition to iron work. It has three docks: one that's 234 feet long, another that's 334 feet long, and a smaller one for lifting barges and small river tugs.

At the United States Naval Yard is a dock of 15,000 tons capacity. This is placed at the service of commercial vessels when private docks are not available.

At the United States Naval Yard, there’s a dock with a capacity of 15,000 tons. This dock is available for commercial vessels when private docks aren’t accessible.

The Public Cotton Warehouse and Public Grain Elevator are among the most modern facilities in the country.

The Public Cotton Warehouse and Public Grain Elevator are some of the most advanced facilities in the country.

Both plants are of reinforced concrete throughout, insuring a low insurance rate.

Both plants are made of reinforced concrete, which ensures a low insurance rate.

The cotton warehouse comprises five units, with a total storage capacity at one time of 320,000 bales, and an annual handling capacity of 2,000,000. High density presses compress this cotton to 34 pounds per cubic foot, saving the exporter 20 per cent on steamship freight rates. The insurance rate on storage cotton is 24 cents per $100 a year. Cotton is handled by Dock Board employees licensed by the New Orleans Cotton Exchange under rules and regulations laid down by the department of agriculture. Warehouse receipts may be discounted at the banks. Cotton can be handled cheaper here than at any other warehouse in the country.

The cotton warehouse has five units and can store a total of 320,000 bales at one time, with an annual handling capacity of 2,000,000 bales. High-density presses compress the cotton to 34 pounds per cubic foot, which saves exporters 20% on steamship freight rates. The insurance rate for stored cotton is 24 cents per $100 per year. Cotton is managed by Dock Board employees who are licensed by the New Orleans Cotton Exchange and follow the rules and regulations set by the Department of Agriculture. Warehouse receipts can be discounted at banks. Cotton can be handled more cheaply here than at any other warehouse in the country.

Storage capacity of the Public Grain Elevator is 2,622,000 bushels. This is about 25 per cent of the grain elevator storage capacity of the port, but the Public Elevator handles 60 per cent of the business—proving its efficiency. Its unloading capacity is 60,000 bushels a day from barges or ships, and 200,000 bushels from cars. Loading capacity into ships is 100,000 bushels an hour—to one or four vessels, simultaneously. Fireproof and equipped with a modern dust-collecting system, this facility is considered one of the best in the country.

The Public Grain Elevator has a storage capacity of 2,622,000 bushels. This represents about 25 percent of the total grain elevator storage capacity at the port, yet the Public Elevator manages 60 percent of the business, demonstrating its efficiency. It can unload 60,000 bushels a day from barges or ships and 200,000 bushels from railcars. Its loading capacity into ships is 100,000 bushels per hour—serving one to four vessels at the same time. Fireproof and equipped with a modern dust-collection system, this facility is regarded as one of the best in the country.

Other grain elevators at New Orleans are operated by:

Other grain elevators in New Orleans are run by:

Southern Railway: capacity, 375,000 bushels;

Southern Railway: capacity, 375,000 bushels;

Illinois Central Railroad two elevators, capacity, 2,500,000 bushels;

Illinois Central Railroad has two elevators, with a capacity of 2,500,000 bushels;

Trans-Mississippi Terminal Railroad Company: two elevators, capacity, 1,350,000 bushels.

Trans-Mississippi Terminal Railroad Company: two elevators, capacity of 1,350,000 bushels.

Wharves owned and controlled by the Dock Board measure 28,872 linear feet in length, with an area of 4,230,894 square feet. Twenty of these thirty-four wharves are covered with steel sheds.

Wharves owned and managed by the Dock Board are 28,872 linear feet long, covering an area of 4,230,894 square feet. Out of these thirty-four wharves, twenty are topped with steel sheds.

Wharves operated by the railroads on both sides of the river increase the port facilities as follows:

Wharves run by the railroads on both sides of the river expand the port facilities as follows:

Southern Railway: Two concrete and steel covered docks, one a two-story structure; one is 150 by 1,300 feet, with a floor space of 195,000 square feet; one is 150 by 1,680 feet on the lower floor, and 120 by 1,680 on the upper, with a combined area of 453,000 square feet floor space.

Southern Railway: Two covered docks made of concrete and steel; one is a two-story building, measuring 150 by 1,300 feet with 195,000 square feet of floor space; the other is 150 by 1,680 feet on the lower level and 120 by 1,680 feet on the upper level, providing a total of 453,000 square feet of floor space.

Illinois Central Railroad: covered wharf, 130-150 by 4,739 feet.

Illinois Central Railroad: covered wharf, 130-150 by 4,739 feet.

Morgan's Louisiana and Texas Railroad and Steamship Company: wharf space, 112,000 square feet; covered space, 117,200 square feet.

Morgan's Louisiana and Texas Railroad and Steamship Company: wharf space, 112,000 square feet; covered space, 117,200 square feet.

Trans-Mississippi Terminal Railroad Company: Wharf No. 1, three berths, 281,904 square feet; No. 2, one berth, 94,350 square feet; No. 3, one berth, 100,725 square feet—most of it covered; oil wharf, 15,000 square feet.

Trans-Mississippi Terminal Railroad Company: Wharf No. 1, three berths, 281,904 square feet; No. 2, one berth, 94,350 square feet; No. 3, one berth, 100,725 square feet—most of it covered; oil wharf, 15,000 square feet.

The New Orleans Army Supply Base has a two-story wharf 2,000 feet long by 140 feet wide. The lower floor of the wharf is leased by the Dock Board. Back of it are the three warehouses, each 140 by 600 feet, and six stories in height.

The New Orleans Army Supply Base has a two-story wharf that is 2,000 feet long and 140 feet wide. The Dock Board leases the lower level of the wharf. Behind it, there are three warehouses, each measuring 140 by 600 feet and six stories tall.

Seven industrial plants have loading and unloading facilities on the river. The Dock Board does not lease or part with the control of these, and controls the following charges: harbor fees, dockage, sheddage, wharfage, etc.

Seven industrial plants have loading and unloading facilities by the river. The Dock Board doesn't lease or give up control of these and manages the following charges: harbor fees, dock fees, storage fees, wharf fees, etc.

Open storage on river front contiguous to wharves totals 1,169,900 square feet. There is a great deal of potential open storage space away from the wharves and along railroad tracks, which could be reached by switches.

Open storage along the riverfront next to the wharves adds up to 1,169,900 square feet. There’s a lot of available open storage space away from the wharves and alongside the railroad tracks, which can be accessed by switches.

For the storage of coffee, alcohol, sisal, sugar and general commodities, private warehouses offer a floor space of 2,000,000 square feet.

For storing coffee, alcohol, sisal, sugar, and various other goods, private warehouses provide 2,000,000 square feet of floor space.

Railroads serving New Orleans are: The Public Belt, Illinois Central, Yazoo & Mississippi Valley, Gulf Coast Lines, Louisiana Railway & Navigation Company, Louisville & Nashville, Louisiana Southern, Missouri-Pacific, Texas & Pacific, New Orleans & Lower Coast, Morgan's Louisiana & Texas Railroad and Steamship Company, (Southern Pacific) Southern Railway and New Orleans & Great Northern.

Railroads serving New Orleans include: The Public Belt, Illinois Central, Yazoo & Mississippi Valley, Gulf Coast Lines, Louisiana Railway & Navigation Company, Louisville & Nashville, Louisiana Southern, Missouri-Pacific, Texas & Pacific, New Orleans & Lower Coast, Morgan's Louisiana & Texas Railroad and Steamship Company, (Southern Pacific) Southern Railway, and New Orleans & Great Northern.

Storage track capacity of New Orleans for export traffic totals 15,156 cars. Track facilities alongside the wharves will accommodate 600 cars. New Orleans can handle, at the grain elevators and wharves, 3,000 cars a day.

Storage track capacity of New Orleans for export traffic totals 15,156 cars. Track facilities alongside the wharves will accommodate 600 cars. New Orleans can handle, at the grain elevators and wharves, 3,000 cars a day.

Wharves are served exclusively by the Public Belt Railroad. The Industrial Canal will be similarly served. The Public Belt Railroad assumes the obligations of a common carrier, operating under appropriate traffic rules and regulations. The switching charge is $7.00 a car, regardless of the distance. On uncompressed cotton and linters, the charge is $4.50.

Wharves are only served by the Public Belt Railroad. The Industrial Canal will receive the same service. The Public Belt Railroad takes on the responsibilities of a common carrier, operating under the relevant traffic rules and regulations. The switching fee is $7.00 per car, no matter the distance. For uncompressed cotton and linters, the fee is $4.50.

The government barge line connects New Orleans with the Warrior River section of Alabama and the Upper Mississippi Valley, including a great deal of inland territory to which river and rail differential rates apply, as far as St. Louis. It is operating a fleet of 2,000-ton steel covered barges and 1,800 horsepower towboats. There is a weekly service. Rates are 20 per cent cheaper than rail rates.

The government barge line links New Orleans with the Warrior River area of Alabama and the Upper Mississippi Valley, reaching a large amount of inland territory where river and rail differential rates apply, all the way to St. Louis. It operates a fleet of 2,000-ton steel covered barges and 1,800 horsepower towboats. There’s a weekly service, and rates are 20 percent lower than rail rates.

The port is supplied with some of the most modern freight handling machinery. Harbor dues and other expenses are low. The water supply, for drinking purposes and boilers, meets the strongest tests.

The port is equipped with some of the most advanced freight handling machinery. Harbor fees and other costs are minimal. The water supply, for drinking and boiler use, passes all the toughest tests.

How advantageously situated is New Orleans will be seen from the following comparison of distances:

How well-located New Orleans is can be seen from the following comparison of distances:

THE LOCK COMPLETED
SHIP LOCK on the INNER HARBOR NAVIGATION CANAL at the PORT OF NEW ORLEANS
THE LOCK COMPLETED
SHIP LOCK on the INNER HARBOR NAVIGATION CANAL at the PORT OF NEW ORLEANS
THE LOCK HAS BEEN COMPLETED

COMPARISON OF DISTANCES BY AND BETWEEN NEW ORLEANS AND NEW YORK AND PRINCIPAL CITIES.

COMPARISON OF DISTANCES TO AND BETWEEN NEW ORLEANS AND NEW YORK AND MAJOR CITIES.

(Distances in statute miles, furnished by War Department.)

(Distances in statute miles, provided by the War Department.)

  New York New Orleans
Atlanta 846 498
Baltimore 188 1,184
Birmingham 1,043 348
Boston 235 1,607
Buffalo 442 1,275
Charleston 739 776
Chattanooga 846 498
Chicago 912 912
Cincinnati 781 836
Cleveland 584 1,092
Dallas 1,642 515
Denver 1,932 1,356
Detroit 693 1,100
Duluth 1,390 1,340
El Paso 2,310 1,195
Galveston 1,782 410
Indianapolis 827 888
Kansas City 1,335 867
Little Rock 1,290 487
Louisville 867 749
Memphis 1,156 396
Minneapolis 1,332 1,285
Mobile 1,231 141
Norfolk 347 1,093
Oklahoma City 1,643 856
Omaha 1,402 1,070
Pittsburgh 444 1,142
Philadelphia 91 1,281
Port Townsend 3,199 2,979
Portland, Oregon 3,204 2,746
Salt Lake City 2,442 1,928
San Antonio 1,943 571
San Francisco 3,191 2,482
Savannah 845 661
Seattle 3,151 2,931
St. Louis 1,058 701
Toledo 705 1,040
Washington, D.C. 228 1,144


COMPARISON OF DISTANCES BY WATER ROUTES BETWEEN NEW ORLEANS AND NEW YORK TO PRINCIPAL PORTS OF THE WORLD.

COMPARISON OF DISTANCES BY WATER ROUTES BETWEEN NEW ORLEANS AND NEW YORK TO MAIN PORTS OF THE WORLD.

(Distances in nautical miles, supplied by Hydrographic Office, Navy Department; land routes in statute miles supplied by War Department.)

(Distances in nautical miles, provided by the Hydrographic Office, Navy Department; land routes in statute miles provided by the War Department.)

  New York New Orleans
Antwerp 3,325 4,853
Bombay—    
Via Suez 8,120 9,536
Via Cape of Good Hope 11,250 11,848
Buenos Ayres 5,868 6,318
Callao—    
Via Panama 3,392 2,764
Via Tehauntepec 4,246 2,991
Cape Town 6,851 7,374
Colon (eastern end of Panama Canal) 1,981 1,380
Havana 1,227 597
Hong Kong—    
Via Panama 11,431 10,830
[a] Via rail to San Francisco 9,277 8,568
Honolulu—    
Via Panama 6,686 6,085
Via rail to San Francisco 5,288 4,579
Liverpool 3,053 4,553
London 3,233 4,507
Manila—    
Via Panama 11,546 10,993
[a] Yokohama and San Francisco 9,480 8,771
[a] Yokohama and Port Townsend 9,192 8,972
Melbourne—    
[a] Via San Francisco 10,231 9,522
Via Panama 10,028 9,424
Via Tehauntepec 9,852 8,604
Via Suez Canal 12,981 14,303
Mexico City—    
By land and water 2,399 1,172
By land 2,898 1,526
New Orleans—    
Land 1,372  
Water 1,741  
Nome, Alaska—    
[a] Via San Francisco 5,896 5,187
[a] Via Port Townsend 5,555 5,335
Via Panama 8,010 7,410
Panama (western end Canal)—
Via Canal and Colon 2,028 1,427
Pernambuco, Brazil 3,696 3,969
Rio de Janeiro 4,778 5,218
San Juan, P.R. 1,428 1,539
Singapore—    
Via Yokohama and Panama 13,104 12,503
Via Suez 10,170 11,560
San Francisco 3,191 2,482
Via Tehauntepec 4,415 3,191
Via Panama 5,305 4,704
Tehauntepec—    
Eastern end of railroad 2,036 812
Valparaiso—    
Via Panama 4,637 4,035
Yokohama—    
Via Honolulu and Tehauntepec 9,243 7,995
Via Honolulu and Panama 10,093 9,492
Via Panama 9,869 9,268
     
[a] By land and water.    
[b] By land.    

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