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THE WRIGHT BROTHERS

THE WRIGHT
BROTHERS

THE WRIGHT
BROTHERS

By FRED C. KELLY

By FRED C. KELLY

A Biography Authorized by
Orville Wright

An Authorized Biography of
Orville Wright

HARCOURT, BRACE AND COMPANY
NEW YORK

Harcourt, Brace and Company
New York


COPYRIGHT, 1943, BY
HARCOURT, BRACE AND COMPANY, INC.

COPYRIGHT, 1943, BY
HARCOURT, BRACE AND COMPANY, INC.

All rights reserved, including
the right to reproduce this book
or portions thereof in any form.

All rights reserved, including
the right to reproduce this book
or parts of it in any form.

[b-6-43]

[b-6-43]

PRINTED IN THE UNITED STATES OF AMERICA

PRINTED IN THE UNITED STATES OF AMERICA


TO

The Brave Flyers of the United Nations
Fighting All over the World for Humanity
and Decency Against the Forces of Barbarism,

This Book Is Dedicated

TO

The Brave Flyers of the United Nations
Fighting Everywhere for Humanity
and Decency Against the Forces of Brutality,

This Book Is Dedicated


vii

vii

AUTHOR’S PREFACE

The aim in this book has been to satisfy the curiosity of the average, non-technical reader regarding the work of the Wright Brothers, and to do so as simply as possible. No attempt has been made to go into minute technical details. Nor does the book cover the scientific researches and numerous inventions by Orville Wright since the death of his brother.

The goal of this book has been to satisfy the curiosity of the general, non-technical reader about the work of the Wright Brothers, and to do so as simply as possible. No effort has been made to dive into detailed technical specifics. Additionally, the book does not cover the scientific research and many inventions by Orville Wright after his brother's death.

To give credit to everyone who has been gracious with help in the preparation of what I have written would require so long a list, with risk of names being unintentionally omitted, that I shall not attempt it.

To acknowledge everyone who has generously helped me in preparing what I've written would take such a long list, and there's a chance I might unintentionally leave out some names, so I won't try to do it.

But one name naturally and obviously comes first and foremost—that of Orville Wright himself. He has read my manuscript and given generously of his time in verifying the accuracy of various statements and in correcting inaccuracies which otherwise would have appeared.

But one name clearly stands out—that of Orville Wright himself. He has read my manuscript and generously spent his time verifying the accuracy of various statements and correcting any inaccuracies that would have otherwise slipped through.

Next in importance to that of Orville Wright has been the help received from his secretary, Miss Mabel Beck, whose memory and knowledge of Mr. Wright’s voluminous files enabled her quickly to produce documentary evidence to make certain of accuracy.

Next in importance to that of Orville Wright has been the help received from his secretary, Miss Mabel Beck, whose memory and knowledge of Mr. Wright’s extensive files allowed her to quickly provide documentation to ensure accuracy.

FRED C. KELLY

FRED C. KELLY

Peninsula, Ohio

Peninsula, OH


CONTENTS

Author’s Preface vii
Prologue 3
I. BOYHOOD 5
II. BACKGROUND 19
III. PRINTING—AND BICYCLES 29
IV. FIRST THOUGHTS OF FLIGHT 45
V. GLIDING AT KITTY HAWK 58
VI. FIRST POWER FLIGHT 84
VII. AFTER THE EVENT 112
VIII. EXPERIMENTS OF 1904-’05 120
IX. IT STILL WASN’T “NEWS” 139
X. U. S. ARMY NOT INTERESTED 147
XI. EUROPE DISCOVERS THE WRIGHTS 166
XII. THE WRIGHTS IN EUROPE 194
XIII. A DEAL WITH THE U. S. 207
XIV. END OF DISBELIEF 226
XV. WHEN WILBUR WRIGHT WON FRANCE 233
XVI. FURTHER ADVENTURES IN 1909 254
XVII. IN AVIATION BUSINESS 268
XVIII. PATENT SUITS 287
XIX. WHY THE WRIGHT PLANE WAS EXILED 300
Index 335

LIST OF ILLUSTRATIONS

THE FIRST CAMP AT KITTY HAWK 52
THE 1902 GLIDER 53
INSIDE THE 1902 CAMP 84
FROM ORVILLE WRIGHT’S DIARY 85
FIRST FLIGHT 116
THE FIRST POWER PLANE 117
THE HUFFMAN PASTURE 148
THE WRIGHT PATENT 149
THE U. S. ARMY TEST 180
AT FORT MYER 181
THE WRIGHT PLANE IN FRANCE 212
THE WRIGHTS AND WILBUR’S FRENCH PUPILS 213
THE OLD AND THE NEW IN TRANSPORTATION 244
DEMONSTRATION AT PAU 245
TWO ACES AND KING 276
THE WRIGHT HOME AND SHOP 277

3

3

THE WRIGHT BROS


In a corner of the Pullman smoking compartment, by the window, the man who had been explaining the whole economic system mentioned inventors as an example of the fortunate relationship between desire for money and scientific progress.

In a corner of the Pullman smoking compartment, by the window, the man who had been explaining the whole economic system mentioned inventors as an example of the lucky connection between the desire for money and scientific progress.

“Take the Wright brothers,” he said. “Would they have worked all those years trying to fly just for their health?”

“Look at the Wright brothers,” he said. “Would they have spent all those years trying to fly just for their health?”

Another passenger ventured to ask: “Don’t people sometimes become curious about a problem and work to see what they can find out?”

Another passenger dared to ask, “Don’t people sometimes get curious about a problem and try to figure out what they can find?”

The man by the window chuckled tolerantly as he replied: “Do you think those Wright brothers would have kept on pouring money into their experiments and risking their lives if they hadn’t hoped to get rich at it? No, sir! It was the chance to make a fortune that kept them going.” Most of the other passengers in the compartment nodded in agreement.

The man by the window chuckled understandingly as he replied, “Do you really think those Wright brothers would have continued to spend money on their experiments and risk their lives if they didn’t hope to get rich from it? No way! The chance to make a fortune is what kept them pushing forward.” Most of the other passengers in the compartment nodded in agreement.

Not long afterward, one of those who had overheard that conversation was in Dayton, Ohio, and inquired of his friend Orville Wright: “Do you think the expectation of profit is the main incentive to inventors?”

Not long after, someone who had heard that conversation was in Dayton, Ohio, and asked his friend Orville Wright, “Do you think the desire for profit is the main motivation for inventors?”

Orville Wright didn’t think so. He doubted if Alexander Graham Bell expected to make much out of the telephone. And it seemed to him unlikely that Edison4 started out with the idea of making money. Certainly, he said, Steinmetz had little interest in financial reward. All Steinmetz asked of life was the opportunity to spend as much time as possible in the laboratory working at problems that interested him.

Orville Wright didn’t agree. He questioned whether Alexander Graham Bell expected to profit much from the telephone. And it seemed to him unlikely that Edison4 started out with the goal of making money. Certainly, he said, Steinmetz wasn’t really interested in financial gain. All Steinmetz wanted from life was the chance to spend as much time as possible in the lab working on problems that fascinated him.

“And the Wright brothers?”

“And the Wright brothers?”

If they had been interested in invention with the idea of making money, said Orville Wright, looking amused, they “most assuredly would have tried something in which the chances for success were brighter.”

If they had been focused on inventing to make money, Orville Wright said with a smirk, they “definitely would have pursued something with better odds of success.”


From earliest years both Wilbur and Orville Wright were motivated by what Thorstein Veblen called the “instinct of workmanship.” Their father, the Reverend Milton Wright, used to encourage them in this and never chided them for spending on their hobbies what little money they might have. But he did urge them to try to earn enough to meet the costs of whatever projects they were carrying on. “All the money anyone needs,” he used to say, “is just enough to prevent one from being a burden on others.”

From a young age, both Wilbur and Orville Wright were driven by what Thorstein Veblen referred to as the “instinct of workmanship.” Their father, Reverend Milton Wright, supported this passion and never criticized them for spending their limited money on their interests. However, he did encourage them to earn enough to cover the expenses of their projects. “All the money anyone needs,” he would say, “is just enough to keep you from being a burden on others.”

Both brothers were fascinated by mechanics almost from the time they were conscious of interest in anything. The childhood events most vivid in the recollections of Orville Wright have had to do with mechanical devices of one kind or another. One of the high spots was the day he attained the age of five, because he received for a birthday gift a gyroscopic top that would maintain its balance and spin while resting on the edge of a knife-blade.

Both brothers were intrigued by mechanics almost from the moment they became interested in anything. The childhood memories that stand out most for Orville Wright involve mechanical devices of various kinds. One of the highlights was the day he turned five, as he got a gyroscopic top for his birthday that could balance and spin while resting on the edge of a knife blade.

Shortly after that fifth birthday, and partly because of his inborn enthusiasm over mechanics, Orville began an association with another boy that had an important influence on his life. His mother started him to kindergarten. The school was within a short walking distance6 of the Wright home and Orville set out after breakfast each morning with just enough time to reach the classroom if he didn’t loiter. His mother bade him return home promptly after he was dismissed and he always arrived punctually at the time expected. When asked how he was getting along, he cheerfully said all was going well, but did not go into details. At the end of a month his mother went to visit the kindergarten to learn just how Orvie was doing.

Shortly after his fifth birthday, and partly because of his natural enthusiasm for mechanics, Orville began spending time with another boy who had a significant impact on his life. His mother enrolled him in kindergarten. The school was a short walk from the Wright home, and Orville would head out after breakfast each morning, making sure he had just enough time to get to class if he didn’t dawdle. His mother told him to come home right after he was dismissed, and he always returned exactly when expected. When asked how things were going, he happily said everything was fine but didn’t share any details. At the end of the month, his mother decided to visit the kindergarten to find out how Orvie was doing.

“I hope the child has been behaving himself,” said the mother to the teacher.

“I hope the kid has been behaving himself,” said the mother to the teacher.

The teacher stared at her in astonishment. “Why,” said she, “you know, since the first few days I haven’t seen him. I supposed you had decided to keep him at home.”

The teacher looked at her in surprise. “Well,” she said, “you know, I haven’t seen him since the first few days. I thought you had chosen to keep him at home.”

It turned out that Orville had almost immediately lost interest in kindergarten and instead had regularly gone to a house two doors from his own, on Hawthorne Street, to join a playmate, Edwin Henry Sines. With an eye on the clock to adjust himself to the kindergarten hours, he had stayed there and played with young Sines until about a minute before he was due at home.

It turned out that Orville quickly lost interest in kindergarten and instead started regularly going to a house two doors down from his own, on Hawthorne Street, to play with his friend, Edwin Henry Sines. Keeping an eye on the clock to match the kindergarten schedule, he would stay and play with young Sines until about a minute before he needed to get home.

Orville’s father and mother were not too severe when this little irregularity was discovered, because the boys had not been engaged in any mischief. On the contrary, their play had been of a sort that might properly be called “constructive.” The thing that had occupied them most was an old sewing-machine belonging to Sines’ mother. They “oiled” it by dropping water from a feather into the oil-holes!

Orville’s parents weren’t too harsh when this little mistake was found out, since the boys hadn’t done anything wrong. In fact, their play was the kind that could be called “constructive.” What had kept them busy was an old sewing machine that belonged to Sines’ mom. They “oiled” it by dripping water from a feather into the oil holes!

Both Orville and Wilbur followed their father’s advice7 and earned whatever money they spent. One source of income was from wiping dishes in the evening, for which their mother paid a flat rate of one cent. Sometimes she employed them to make minor household repairs. Orville seemed to find more outlets for money than did Wilbur, who was more saving, and from time to time he borrowed from Wilbur—but he kept his credit good by sticking to an arrangement they always made that the next money earned should be applied on the debt.

Both Orville and Wilbur took their father’s advice7 and earned whatever money they spent. One way they made money was by washing dishes in the evenings, for which their mother paid a flat rate of one cent. Sometimes she hired them to do minor repairs around the house. Orville seemed to find more ways to make money than Wilbur, who was more frugal, and from time to time, he borrowed from Wilbur—but he kept his credit good by sticking to an agreement they always made that the next money earned would go toward repaying the debt.

One of Orville’s early money-making ventures was the collecting of old bones in near-by alleys, vacant lots, or neighbors’ yards, and selling them to a fertilizer factory. He and another boy first did this as a means for raising funds with which to buy candy for use while fishing. They accumulated a weight of bones that it seemed to them must represent a small fortune—and were somewhat shocked when the buyer paid them only three cents.

One of Orville’s early money-making ventures was collecting old bones in nearby alleys, vacant lots, or neighbors’ yards and selling them to a fertilizer factory. He and another boy initially did this to raise money to buy candy for while they were fishing. They gathered a bunch of bones that they thought would be worth a lot—and were pretty shocked when the buyer gave them only three cents.

At first, Orville’s associates in his projects were boys of his own age rather than Wilbur, who was more than four years older and moved in a different group; but a day came when the brothers began to share curiosity over a mechanical phenomenon. In June, 1878, when Orville was seven years old and Wilbur eleven, the Wright family left Dayton, because the work of the father, who had been made a Bishop of the United Brethren church, was shifted to Cedar Rapids, Iowa. And it was in a house on Adams Street, in Cedar Rapids, not long after their arrival there, that an event occurred which was to have much influence on the lives of8 Wilbur and Orville—as well as to have its effect on the whole human race.

At first, Orville's friends in his projects were boys his age instead of Wilbur, who was over four years older and hung out with a different crowd. But then one day, the brothers started to share an interest in a mechanical phenomenon. In June 1878, when Orville was seven and Wilbur was eleven, the Wright family moved from Dayton because their dad, who had become a Bishop in the United Brethren church, was transferred to Cedar Rapids, Iowa. Not long after they arrived in a house on Adams Street in Cedar Rapids, an event happened that would greatly impact the lives of Wilbur and Orville—and also have an effect on the entire human race.

Bishop Wright had returned from a short trip on church business bringing with him a little present for his two younger sons.

Bishop Wright had come back from a brief trip for church work, bringing a small gift for his two younger sons.

“Look here, boys,” he said to Wilbur and Orville, holding out his hands with something hidden between them. Then he tossed the gift toward them. But instead of falling at once to the floor or into their hands, as they expected, it went to the ceiling where it fluttered briefly before it fell. It was a flying-machine, a helicopter, the invention of a Frenchman, Alphonse Pénaud. Made of cork, bamboo, and thin paper, the device weighed so little that twisted rubber bands provided all the power needed to send it aloft for a few seconds. As the brothers were to learn later, Pénaud, an invalid during most of his short life, had not only invented, as early as 1871, various kinds of toy flying-machines—both the helicopter type and others that flew horizontally—but was the originator of the use of rubber bands for motive power. Simple as was this helicopter—they called it the “bat”—Wilbur and Orville felt great admiration for its ingenuity. Though it soon went the way of all fragile toys, the impression it left on their minds never faded.

“Hey, guys,” he said to Wilbur and Orville, holding out his hands with something hidden between them. Then he tossed the gift toward them. But instead of falling straight to the floor or into their hands, as they expected, it went up to the ceiling where it fluttered briefly before it fell. It was a flying machine, a helicopter, invented by a Frenchman, Alphonse Pénaud. Made of cork, bamboo, and thin paper, the device was so light that twisted rubber bands provided all the power needed to send it into the air for a few seconds. As the brothers would later learn, Pénaud, who was an invalid for most of his short life, had not only invented, as early as 1871, various types of toy flying machines—both the helicopter type and others that flew horizontally—but was also the pioneer in using rubber bands as a power source. Simple as this helicopter was—they called it the “bat”—Wilbur and Orville felt great admiration for its ingenuity. Though it quickly met the fate of all fragile toys, the impression it left on their minds never faded.

Not long afterward Wilbur tried to build an improvement on that toy helicopter. If so small a device could fly, why not make a bigger one that could fly longer and higher? Orville was still too young to contribute much to the actual building of larger models, but he was keenly interested as Wilbur made several, each larger than the one preceding. To the brothers’ astonishment,9 they discovered, that the bigger the machine, the less it would fly; and if it was much bigger than the original toy, it wouldn’t fly at all. They did not yet understand that a machine of only twice the linear dimensions of another would require eight times the power.

Not long after, Wilbur tried to improve on that toy helicopter. If such a small device could fly, why not create a bigger one that could fly longer and higher? Orville was still too young to help much with building larger models, but he was very interested as Wilbur made several, each one bigger than the last. To the brothers’ surprise,9 they discovered that the larger the machine, the less it would fly; and if it was much bigger than the original toy, it wouldn’t fly at all. They didn’t yet understand that a machine with twice the length of another would need eight times the power.

Orville, meanwhile, had distinguished himself in another way, by organizing an army. His grade at school was dismissed one Friday afternoon, though the rest of the school was in session, and it occurred to Orville that it might be amusing to march by, throw gravel on the windows, and taunt those who were still at their lessons. Supported by his friend, Bert Shaffer, he proposed to a dozen other boys in the class that they form themselves into an army, and act not as individuals but as an organization. For having thought of the idea, Orville, who had been doing some reading about Napoleon, would be the General, but there would be Colonels and Captains as well. In fact, they used up all the military titles they knew. Lacking guns, they would have to carry wooden clubs, and these they got by removing some loose pickets from the school fence. All went well until the school janitor began to chase them, evidently intending to capture them. One of the boys made him pause by throwing a rock in his direction as he was crawling through a hole in the fence. After escaping into a distant alley, all in the army assumed they would probably be in plenty of trouble when they returned to school Monday morning.

Orville, on the other hand, had made a name for himself in a different way by organizing an army. His grade at school was let out one Friday afternoon while the rest of the school was still in session, and Orville thought it might be fun to march by, throw gravel at the windows, and tease those who were still in class. With the support of his friend, Bert Shaffer, he suggested to a dozen other boys in the class that they form an army and act not as individuals but as a group. Because he came up with the idea and had been reading about Napoleon, Orville would be the General, but there would also be Colonels and Captains. In fact, they used up every military title they could think of. Lacking real weapons, they carried wooden clubs, which they got by pulling some loose pickets from the school fence. Everything was going well until the school janitor began chasing them, clearly wanting to catch them. One of the boys made him stop momentarily by throwing a rock in his direction as he crawled through a hole in the fence. After escaping into a faraway alley, everyone in the army figured they would likely be in a lot of trouble when they returned to school on Monday morning.

“We’ll be all right,” said Orville, feeling bound, as10 their commanding General, to try to uphold the army’s morale, “if we stick together. They can’t fire us all.”

“We’ll be fine,” said Orville, feeling obligated, as10 their commanding General, to maintain the army’s morale, “if we stick together. They can’t fire us all.”

He mounted a box lying in the alley and outlined what they should do. The teacher would doubtless single out only two or three of them that had been recognized by the janitor and ask them to stay after school. But if the teacher asked one of them to stand up, they must all stand up; or, if she asked one to stay after school, all must stay, and show their solidarity. “All for one, and one for all,” he quoted.

He climbed onto a box in the alley and explained what they needed to do. The teacher would probably pick out just two or three of them that the janitor had noticed and ask them to stay after school. But if the teacher asked one of them to stand up, they all had to stand up; or, if she asked one to stay after school, all of them had to stay to show their support. “All for one, and one for all,” he quoted.

When they were back in school at the next session, the teacher said nothing to indicate that retribution was in the making; but when the class was dismissed at the end of the afternoon, she asked Orville to “remain.” True to their pact, all the rest of the army stayed in their seats—or, rather, all except one under-sized lad. A few minutes later, the teacher asked Orville to come to her desk. As he stepped forward, all the others started to do likewise. “The rest of you sit down,” commanded the teacher, and then added: “I don’t know why you’re here at all.” Her tone was such that all meekly sat down.

When they got back to school the next session, the teacher didn't say anything to suggest that punishment was coming; but when class ended in the afternoon, she asked Orville to “stay behind.” True to their agreement, everyone else in the group remained in their seats—well, everyone except one small kid. A few minutes later, the teacher called Orville to her desk. As he stepped forward, everyone else started to do the same. “The rest of you sit down,” the teacher ordered, then added: “I don’t know why you’re here at all.” Her tone was such that everyone quietly sat back down.

When Orville reached her desk, she said: “You were speaking of a song you could bring for the exercises next Friday”—and went on to talk, pleasantly enough, of Orville’s part in a forthcoming school entertainment.

When Orville got to her desk, she said, “You were talking about a song you could bring for the exercises next Friday”—and continued to chat, quite nicely, about Orville’s role in an upcoming school event.

She didn’t even seem to know about the daring behavior of the army in the school yard. Probably the janitor, embarrassed over his failure to capture the culprits, had not reported them.

She didn’t even seem to know about the bold actions of the army in the schoolyard. Most likely, the janitor, feeling embarrassed about not catching the culprits, hadn’t reported it.

While in Cedar Rapids, Orville showed enterprise in another direction. He had enough intellectual curiosity11 to study lessons that the teacher had not yet assigned. When a little more than eight years old he told his father that he was tired of the Second Reader they were still studying at school and wished he had a Third Reader.

While in Cedar Rapids, Orville showed initiative in another area. He had enough intellectual curiosity11 to study lessons that the teacher hadn’t assigned yet. When he was just over eight years old, he told his father that he was tired of the Second Reader they were still using in school and wished he had a Third Reader.

One morning, not long after that, at the middle of the school year, the principal came to the room Orville was in and announced that any pupils who showed enough proficiency in reading might be promoted at once, without waiting until the end of the year, and begin the Third Reader. The more promising members of the class, selected by the teacher, then stood toeing a chalk mark, up front, as was commonly done, and took turns at reading. In his alarm lest he might not do himself full justice, Orville, someone told him later, held his book upside down. That did not prevent him from reading accurately, as he knew the book by heart, and he was promoted.

One morning, not long after that, in the middle of the school year, the principal came into Orville's classroom and announced that any students who showed enough skill in reading could be promoted right away, without having to wait until the end of the year, and start the Third Reader. The teacher then selected the more promising students from the class to stand toeing a chalk mark at the front, as was usually done, and they took turns reading. In his anxiety about not doing his best, Orville, as someone told him later, held his book upside down. That didn’t stop him from reading accurately since he knew the book by heart, and he was promoted.

“I’m now in the Third Reader class,” he proudly announced when he reached home that noon.

“I’m now in the third reader class,” he proudly announced when he got home that afternoon.

“Well, that’s a strange thing,” said his father. “Just this morning I bought the Third Reader you asked for. But,” he added, “you won’t be able to use it today, because you’re going to miss school this afternoon. I have arranged for you and Wilbur to go to the photographer’s and have your pictures taken.”

“Well, that’s a strange thing,” said his father. “Just this morning I bought the Third Reader you asked for. But,” he added, “you won’t be able to use it today because you’re going to miss school this afternoon. I’ve arranged for you and Wilbur to go to the photographer’s and have your pictures taken.”

Orville’s picture thus commemorated what had seemed to him an important event in his life.

Orville's picture celebrated what he considered an important event in his life.

After three years in Cedar Rapids, the Wright family, in June 1881, moved to Richmond, Indiana, partly that Mrs. Wright, who was not in robust health, might12 have the companionship of her sister who lived there. It was in Richmond that Orville took up the building and flying of kites. Though it interested him, Wilbur did not then take much part in this kite-flying sport, because he feared it might be considered too juvenile for a boy of his size. Orville came to be considered an expert at kite-making and sold kites to playmates as a convenient means of getting spending money. He made the framework of his kites as thin as possible, to reduce weight. Indeed, they were so thin that they would often bend in the wind and the kite formed an arc. But it did not then occur to Orville that this curvature of the kite’s surface had any relation to its good flying qualities.

After three years in Cedar Rapids, the Wright family moved to Richmond, Indiana, in June 1881, partly so that Mrs. Wright, who wasn't in great health, could have the company of her sister who lived there. It was in Richmond that Orville started building and flying kites. Although it interested him, Wilbur didn't participate much in this kite-flying activity because he was worried it might seem too childish for a boy his age. Orville became known as an expert kite-maker and sold kites to his friends as a way to earn some spending money. He made the framework of his kites as thin as possible to reduce weight. In fact, they were so thin that they would often bend in the wind, creating an arc. However, Orville didn't realize that this curvature of the kite's surface had any connection to its flying abilities.

Though he had turned his kite-making to profit, Orville’s best source of revenue in Richmond was a job of folding papers, a church publication. For additional spending money he entered the junk business. He would go after school or on Saturdays to pick up scraps of metal thrown out by a chain factory, and hauled this in his “express” wagon to a junk dealer’s yard.

Though he had turned his kite-making into a source of income, Orville’s best money-maker in Richmond was a job folding papers for a church publication. To earn some extra cash, he got into the junk business. After school or on Saturdays, he would collect scraps of metal discarded by a chain factory and haul them in his “express” wagon to a junk dealer’s yard.

One of his projects was the building of a small wooden lathe. It was too small to be quite satisfactory, and Wilbur offered to help him build a larger lathe, seven or eight feet long. This was the first “big” mechanical job he and Wilbur worked on together.

One of his projects was building a small wooden lathe. It was too small to be really satisfactory, so Wilbur offered to help him make a larger lathe, seven or eight feet long. This was the first “big” mechanical project he and Wilbur worked on together.

The lathe was considered a great success, especially by neighbor boys who thought it a privilege to work the foot-treadle that provided the motive power. But Wilbur felt that it should be improved. He had noticed that bicycles were being equipped with ball-bearings to give easy running quality and he said the lathe ought to13 have ball-bearings. He looked about the barn for material that could be adapted and took some metal rings from an old set of harness. When two of these were held tightly side by side they formed the outer track for the ball-bearings; but, instead of steel balls, marbles were used—the common kind, made of clay, that we used to call “commies.” Within this circle of marble bearings would rest the shaft of the lathe. The idea seemed so sound that the brothers’ friends were much impressed. Many were on hand in the upper floor of the barn awaiting eagerly the final tinkering before the ball-bearing “patent” could be demonstrated. As soon as the lathe was put into operation, there was a terrible noise and then it seemed as if the barn itself was beginning to sway and shake. It was evident that the marbles in the bearing had not been strong enough to withstand the stress; but why should the barn become so agitated? Orville went downstairs to find out if there could be any other cause.

The lathe was seen as a big hit, especially by the neighbor boys who felt lucky to operate the foot-treadle that powered it. But Wilbur thought it needed some upgrades. He had noticed that bicycles were using ball-bearings for smooth operation, and he said the lathe should have ball-bearings too. He searched the barn for materials that could work and took some metal rings from an old harness. When two of these were pressed tightly together, they created the outer track for the ball-bearings. Instead of using steel balls, they used marbles—the regular kind made of clay that we used to call “commies.” Inside this marble ring, the shaft of the lathe would rest. The idea seemed solid enough to impress their friends. Many gathered in the barn's upper floor, eagerly waiting for the final adjustments before they could see the ball-bearing “patent” in action. As soon as the lathe was turned on, there was a loud noise, and it felt like the barn itself was beginning to rock and shake. It was clear that the marbles in the bearing weren't strong enough to handle the pressure; but why was the barn so unsettled? Orville went downstairs to check if there was another reason.

When he reached the outside he saw his sister Katharine held against the side of the house by an invisible force. A small cyclone was taking place! All the boys upstairs had been too absorbed to notice such minor phenomena as weather.

When he got outside, he saw his sister Katharine pressed against the side of the house by an invisible force. A small tornado was happening! All the boys upstairs had been too caught up to pay attention to something as trivial as the weather.

Some of the enterprises Orville got into at Richmond were not of a mechanical nature; and Wilbur, if sharing in them at all, appeared only in the background, or as a consultant, for he was at an age when a boy gave thought to his dignity. Orville had noticed that many boys chewed small hunks of tar. It seemed to him that if the tar could be flavored with sugar to make it more palatable, and small pieces were wrapped in tissue paper,14 a market for the product might be found. He and his friend, Harry Morrow, began a series of experiments in the Wright back yard, and they seemed well on their way to having a saleable article. But as they kept testing their samples, both became ill—some kind of stomach disorder, accompanied by nausea—and abandoned their plans. Wilbur, though not a partner in all this, was much interested and for years afterwards used to refer to “that chawin’ gum corporation.”

Some of the businesses Orville got into in Richmond weren't mechanical; and Wilbur, if he got involved at all, seemed more like a background figure or a consultant, since he was at an age when boys cared about their dignity. Orville noticed that a lot of boys chewed on small pieces of tar. He thought that if the tar could be flavored with sugar to make it taste better, and little pieces were wrapped in tissue paper,14 a market for it might be found. He and his friend, Harry Morrow, started a series of experiments in the Wright backyard, and they seemed to be on the right track to creating a sellable product. But as they kept testing their samples, both got sick—some kind of stomach issue with nausea—and gave up on their plans. Wilbur, even though he wasn't a partner in this, was very interested and for years afterwards referred to “that chewing gum company.”

If Orville was “into” more different things at this time than his brother, it was mainly because Wilbur’s great passion was for reading. And what he read, he absorbed. It wasn’t long until he himself began to show a gift for writing. Because of that, Wilbur played an important part in one of Orville’s early business ventures—though behind the scenes.

If Orville was interested in more different things at this time than his brother, it was mainly because Wilbur was really passionate about reading. And he absorbed everything he read. It didn’t take long for him to start showing a talent for writing. Because of that, Wilbur played an important role in one of Orville’s early business ventures—although it was mostly behind the scenes.

One of Orville’s friends was a boy living next door named Gansey Johnston, whose father made a hobby of taxidermy. They often played in the Johnston barn where the father had a collection of stuffed birds and animals. One day Orville’s imagination was much stirred. He saw possibilities for putting those birds and animals to good use—especially when he noted that there was even a huge black bear and a grizzly. It was obvious to him that he and the Johnston boy should form a partnership and he asked Gansey how he would feel about such an arrangement.

One of Orville's friends was a kid named Gansey Johnston who lived next door. His dad had a hobby of taxidermy. They often played in the Johnston barn where his dad had a collection of stuffed birds and animals. One day, Orville’s imagination was really sparked. He saw a lot of potential for using those birds and animals—especially when he noticed there was even a huge black bear and a grizzly. It was clear to him that he and the Johnston boy should team up, so he asked Gansey how he felt about that idea.

“Partnership to do what?” asked the boy.

“Partnership to do what?” the boy asked.

Why, said Orville, to give a circus!

Why, said Orville, to throw a circus!

Though he had never thought of giving a circus, the Johnston lad caught the idea and soon was enthusiastic.15 They then decided to take in Orville’s friend, Harry Morrow, as a third partner. Their show would be known as The Great W. J. & M. Circus.

Though he had never considered putting on a circus, the Johnston kid got inspired and soon became excited. They then decided to bring in Orville’s friend, Harry Morrow, as a third partner. Their show would be called The Great W. J. & M. Circus.15

As the date for the big show approached, sixteen-year-old Wilbur Wright, who had been taking great interest in the preparations, asked Orville what he had done about advance notices in the newspapers. Orville had to admit that he had done nothing.

As the date for the big show got closer, sixteen-year-old Wilbur Wright, who was really interested in the preparations, asked Orville what he had done about getting advance notices in the newspapers. Orville had to admit that he hadn’t done anything.

Wilbur appeared to be shocked that no one had taken steps fully to prepare the public mind for the coming event, and offered to write a suitable reading notice about the street parade. This, he said, should be placed in the Richmond Evening Item. He had absorbed the method of expression used in circus bills and his forecast of the parade was a masterpiece. There was nothing amateurish about the way he introduced such words as “mammoth,” “colossal,” and “stupendous,” nor about his use of impressively large figures—“thousands of strange birds from all parts of the world” that would positively be in the menagerie. It was announced that the proprietors of the big show would personally lead the parade on “iron horses”; and that Davy Crockett would positively appear with a grizzly bear. At the end of the notice, in professional manner, was the exact route of the parade, that the populace might not miss the great free exhibition of wonders. The notice also gave the prices of admission to the big show—three cents for children under three years; others, five cents. Wilbur gave the piece of publicity to Orville to take to the Item office.

Wilbur seemed shocked that no one had really prepared the public for the upcoming event, so he offered to write a suitable announcement about the street parade. He suggested that it should be published in the Richmond Evening Item. He had picked up the style used in circus advertisements, and his description of the parade was excellent. There was nothing amateurish about how he used words like “mammoth,” “colossal,” and “stupendous,” nor about his mention of impressively large numbers—“thousands of strange birds from all parts of the world” that would definitely be in the menagerie. It was stated that the owners of the big show would lead the parade on “iron horses” and that Davy Crockett would definitely make an appearance with a grizzly bear. At the end of the announcement, in a professional manner, was the exact route of the parade so the public wouldn't miss the great free display of wonders. The notice also included the admission prices for the big show—three cents for children under three; others, five cents. Wilbur handed the publicity piece to Orville to take to the Item office.

There was a little box just inside a door to a stairway16 leading to the editorial rooms, and the boys knew it was intended for news items. But they walked up and down the street in front of the newspaper office for a long time before they had the courage to enter the stairway. What if someone should see them! Finally, when they thought no one was looking, one of them ran up to the box and in desperate haste deposited their piece of publicity. Then both ran up the street at a speed that could have attracted attention.

There was a small box just inside the door to a stairway16 leading to the editorial offices, and the boys knew it was meant for news submissions. But they walked back and forth in front of the newspaper office for a long time before they gathered the courage to go up the stairs. What if someone saw them? Finally, when they thought nobody was watching, one of them sprinted to the box and hurriedly dropped in their piece of publicity. Then both of them dashed up the street at a speed that could have caught someone’s eye.

The editor of the Item evidently had a good news sense and recognized the mysterious “press release” as a local item worth printing. He had no way of knowing who “W. J. & M.” were, but felt sure the account of that forthcoming parade had plenty of reader interest. It came about, therefore, that Wilbur’s advance notice had a prominent position in the Item of September 10, 1883, under a heading that asked: “What Are the Boys Up To?”

The editor of the Item clearly had a good sense for news and saw the mysterious “press release” as a local story worth publishing. He had no way of knowing who “W. J. & M.” were, but he was confident that the announcement about the upcoming parade would interest readers. As a result, Wilbur’s advance notice was given a prominent spot in the Item on September 10, 1883, under the heading: “What Are the Boys Up To?”

Though some of Wilbur’s figures about the number of rare birds and wild animals may have been a bit overdrawn, to conform to circus bill standards, he had not exaggerated the amazing nature of the parade. Two of the proprietors, Wright and Johnston, actually appeared at the head of the parade on their “iron horses.” These were high-wheel bicycles, one of them having wooden spokes. The third associate proprietor of the big show, Harry Morrow, was unavoidably absent, because his parents had gone on a vacation trip to Michigan, and had insisted, much against his wishes, on taking him with them.

Though some of Wilbur’s numbers about the rare birds and wild animals might have been a little inflated to meet circus advertising standards, he didn’t exaggerate the incredible nature of the parade. Two of the owners, Wright and Johnston, actually led the parade on their “iron horses.” These were high-wheel bicycles, one of which had wooden spokes. The third partner of the big show, Harry Morrow, was unfortunately absent because his parents had gone on a vacation to Michigan and insisted, much to his dismay, on taking him with them.

A principal “parade wagon” was the running gear of17 an old buggy, with no body but only a few planks to make a platform on which were some of the “thousands of rare birds,” and also the great, frightful grizzly bear held in leash by Davy Crockett. Though no horses were hitched to this “wagon,” plenty of boys had volunteered their services as “slaves” to pull it through the streets. At the last minute, “Corky” Johnston, nine-year-old brother of one of the proprietors, got into a fight with the circus bosses, and they felt compelled to deny him the privilege of participating in the parade. This created a problem, for he had been cast for the role of Davy Crockett, wearing his father’s hunting togs, including high boots. The circus chiefs got around that, the best they could, by assigning the Davy Crockett part to Corky’s younger brother, Griswold, not yet five years old. He was almost overwhelmed by the hunting suit; but in the rush of getting the parade started he was the best Davy Crockett available.

A main “parade wagon” was the running gear of17 an old buggy, with no body but just a few planks to create a platform that held some of the “thousands of rare birds,” as well as the huge, terrifying grizzly bear that Davy Crockett was holding on a leash. Though there were no horses hitched to this “wagon,” lots of boys volunteered to be “slaves” and pull it through the streets. At the last minute, “Corky” Johnston, the nine-year-old brother of one of the owners, got into an argument with the circus bosses, which led them to deny him the chance to join the parade. This created a problem since he was supposed to play Davy Crockett, dressed in his dad’s hunting gear, including high boots. The circus leaders tried to handle that as best as they could by giving the Davy Crockett role to Corky’s younger brother, Griswold, who was not even five years old. He was nearly swallowed up by the hunting outfit; but in the rush to get the parade going, he was the best Davy Crockett they had.

Wilbur’s advance notice was more successful than he had hoped for. It had aroused so much curiosity that when the parade reached that part of the announced line of march in the business section, the streets were lined with people—almost as many, in fact, as if the circus had been Barnum’s.

Wilbur’s advance notice was more successful than he had hoped. It sparked so much curiosity that when the parade got to the announced route through the business area, the streets were packed with people—almost as many, in fact, as if the circus had been Barnum’s.

Messrs. W. & J., astounded by the unexpected attention the parade was attracting, began to feel much too conspicuous. They hastily decided that their route must be changed, and the parade turned up an alley!

Messrs. W. & J., shocked by the unexpected attention the parade was drawing, started to feel way too noticeable. They quickly decided that they needed to change their route, and the parade went down an alley!

So many customers came that not all who clamored for admission to the Johnston barn could be accommodated, and it was decided to repeat the show. But while18 those who got into the barn were viewing the “menagerie,” the boy who had been denied the privilege of appearing as Davy Crockett saw an opportunity to get his revenge. He got up on the barn roof and addressed the multitude, telling them they might as well disperse and seek their homes, because, he said, there would be no other performance.

So many customers showed up that not everyone who wanted to get into the Johnston barn could fit, so they decided to do the show again. But while18 those who got into the barn were checking out the “menagerie,” the boy who wasn’t allowed to be Davy Crockett saw a chance to get back at them. He climbed up on the barn roof and spoke to the crowd, telling them they might as well leave and go home because, as he said, there wouldn't be another performance.

The crowd took him at his word.

The crowd trusted him.

Orville Wright had previously organized another circus, in partnership with a neighbor boy named Miller, who had a Shetland pony. For this show the admission was only one cent. Though the gross receipts were not vast, the show was a great success, partly in consequence of the profound impression it had made on the Miller boy’s father. At the close of the performance, he announced that the show people would be guests of honor at a reception, to which the spectators also were cordially invited. Lemonade, ice cream, and cake were served in lavish quantities, and every boy felt that, taking the afternoon as a whole, he had had his money’s worth.

Orville Wright had earlier set up another circus with a neighbor kid named Miller, who had a Shetland pony. The ticket price for this show was just one cent. While the total earnings weren't huge, the event was a big hit, partly because it made a strong impression on Miller's dad. At the end of the show, he announced that the performers would be the guests of honor at a reception, and he warmly invited the audience to join. They served plenty of lemonade, ice cream, and cake, and every boy felt that, looking back on the afternoon, he definitely got his money's worth.

But of all the enterprises in which the Wright brothers showed their initiative in Richmond, the Great W. J. & M. Circus probably caused the most talk. People thought the boy who had organized that show would doubtless amount to something. Many ventured the opinion, too, that the youngster, whoever he was, who had prepared that notice for the newspaper about the parade, would surely be “heard from.”

But out of all the projects the Wright brothers took on in Richmond, the Great W. J. & M. Circus probably generated the most buzz. People believed that the kid who organized that show would definitely go on to do great things. Many also commented that the young person, whoever they were, who wrote that notice for the newspaper about the parade would surely make a name for themselves.


Certain traits that were to show in Wilbur and Orville Wright—the pioneering urge, the gift for original thinking, and mechanical aptitude—were all in their ancestry.

Sure traits that would show in Wilbur and Orville Wright—the drive to pioneer, the ability for original thought, and mechanical skills—were all in their family history.

Take, for example, their grandfather, John G. Koerner. Native of a German village, near Schleiz, he became so bitterly opposed to German militarism and autocracy that he determined to migrate to the United States. He sailed from Bremen to Baltimore early in 1818 and went to live in Virginia. Besides gaining recognition in the United States for his mechanical ability and for the superior quality of farm wagons and carriages he manufactured, he became known, too, as a person who did his own thinking. He did not accept all that he heard or read. Indeed, he seems to have been a “character.” It was his habit to read newspapers aloud to his family, and when, as invariably happened, he came to something that interested him because of approval, disapproval, or for any other reason, he would interpolate comment without changing his tone or rate of utterance. It was impossible for a listener to tell just how much that he seemed to be reading was actually in the paper and which ideas were his own. One by one, members of his family would study the paper afterward20 to see if various surprising statements were really there. No matter how commonplace a newspaper article may have been, it was never colorless as he read it.

Take, for example, their grandfather, John G. Koerner. Born in a German village near Schleiz, he became so strongly opposed to German militarism and autocracy that he decided to move to the United States. He sailed from Bremen to Baltimore in early 1818 and settled in Virginia. Besides earning respect in the U.S. for his mechanical skills and the high-quality farm wagons and carriages he made, he also gained a reputation as someone who thought for himself. He didn’t just accept everything he heard or read. In fact, he was quite a character. It was his routine to read newspapers aloud to his family, and whenever he came across something that caught his interest—whether he agreed or disagreed with it, or for any other reason—he would add his comments without changing his tone or pace. Listeners could never tell how much of what he seemed to be reading was actually from the paper and how much came from his own thoughts. One by one, family members would look over the paper afterward to see if the surprising statements he made were really there. No matter how ordinary a newspaper article might have been, it was never dull when he read it.

His wife, the former Catherine Fry, American born, also came of pioneer ancestry, from the German language section of Switzerland. Their daughter, Susan Catherine Koerner, was born April 30, 1831, when they lived at Hillsboro, Loudoun County, Virginia, but the family moved to Union County, Indiana, shortly after that—at a time when there was still pioneering life in the Hoosier country. The Koerner farm became a rather impressive one for those times. There were finally a dozen or fourteen buildings, including the carriage shop, all conspicuous for their workmanlike construction and orderliness. John Koerner lived to the age of eighty-six.

His wife, the former Catherine Fry, was born in America and also came from pioneer ancestry, hailing from the German-speaking part of Switzerland. Their daughter, Susan Catherine Koerner, was born on April 30, 1831, while they were living in Hillsboro, Loudoun County, Virginia, but the family moved to Union County, Indiana, shortly after that—at a time when pioneering life was still happening in the Hoosier state. The Koerner farm became quite impressive for its time. There were eventually twelve or fourteen buildings, including a carriage shop, all notable for their solid construction and neatness. John Koerner lived to the age of eighty-six.

Perhaps the most interesting pioneer of all in the Wright brothers’ ancestry was Catharine1 (Benham) Van Cleve, the first white woman to set foot in Dayton. Her husband, John Van Cleve, whom she had married in New Jersey, was a descendant of a Van Cleve who had come from Holland to Long Island before 1650. When he proposed, a few years after their marriage, that they should settle in the almost unexplored virgin forest region of Ohio, she liked the adventurous idea. They migrated to Cincinnati—then called Losantiville—in 1790. Within two years after their arrival, John Van Cleve was killed by Indians. His widow married Samuel Thompson and, in April, 1796, they decided to try their luck at a settlement about to be established,21 fifty miles to the north. The place had just been named in honor of Jonathan Dayton, a Revolutionary soldier. Three groups of people arranged to make the trip at about the same time. So unsettled was the country, and so nearly non-existent were the wagon trails, that the party which included Catharine Van Cleve Thompson preferred to travel in a flat-bottomed boat on the Miami River. The others went by land. Though the boat trip took about ten days, that group was the first to arrive. Among those in the boat were some of the Van Cleve children; another of them was in one of the overland parties. A Van Cleve son, Benjamin, became the first postmaster at Dayton, the first school teacher, and also the first county clerk. His marriage at Dayton in August, 1800, to Mary Whitten, was the first recorded in Montgomery County.

Perhaps the most fascinating pioneer in the Wright brothers’ family history was Catharine1 (Benham) Van Cleve, the first white woman to arrive in Dayton. She was married to John Van Cleve, whom she wed in New Jersey, and he was a descendant of a Van Cleve who came from Holland to Long Island before 1650. A few years after they got married, when he suggested they settle in the nearly untouched forest area of Ohio, she liked the adventurous idea. They moved to Cincinnati—then called Losantiville—in 1790. Just two years after they arrived, John Van Cleve was killed by Indians. His widow married Samuel Thompson, and in April 1796, they decided to try their luck at a settlement being established,21 fifty miles to the north. The place had just been named in honor of Jonathan Dayton, a Revolutionary soldier. Three groups of people planned to make the trip around the same time. The area was so unsettled, and the wagon trails were nearly non-existent, that the party which included Catharine Van Cleve Thompson chose to travel in a flat-bottomed boat on the Miami River. The others went overland. Although the boat trip took about ten days, that group was the first to arrive. Among those in the boat were some of the Van Cleve children; another was part of one of the overland groups. A Van Cleve son, Benjamin, became the first postmaster in Dayton, the first school teacher, and also the first county clerk. His marriage in Dayton in August 1800 to Mary Whitten was the first recorded in Montgomery County.

Margaret Van Cleve, a sister of Benjamin, had stayed in Cincinnati, because she was about to be married—to George Reeder, later an innkeeper. They had a daughter, Catharine, who became the wife of Dan Wright (not named Daniel, but plain Dan, as was also his father), who had come to Centerville, Ohio, near Dayton, in 1811. It was of this union that Milton Wright, father of Wilbur and Orville, was born—in a log cabin in Rush County, Indiana, November 17, 1828.

Margaret Van Cleve, Benjamin's sister, stayed in Cincinnati because she was about to get married to George Reeder, who would later become an innkeeper. They had a daughter named Catharine, who married Dan Wright (not Daniel, just Dan, like his father). Dan had moved to Centerville, Ohio, near Dayton, in 1811. From this union, Milton Wright was born—father of Wilbur and Orville—in a log cabin in Rush County, Indiana, on November 17, 1828.

Dan Wright’s ancestry could be traced back to one John Wright, known to have bought Kelvedon Hall, in Essex County, England, in 1538. A less remote ancestor, Samuel Wright, had migrated to America in 1636, and settled at Springfield, Mass.

Dan Wright's family history can be traced back to John Wright, who bought Kelvedon Hall in Essex County, England, in 1538. A closer ancestor, Samuel Wright, moved to America in 1636 and settled in Springfield, Massachusetts.

At the time of his marriage, Dan Wright was employed22 in a distillery. But he evidently did not feel comfortable over his occupation and quit the distillery job to devote his whole attention to farming. Moreover, he “got religion” and would no longer even sell his corn to distillers. Perhaps it was because of the strong religious feeling of Dan Wright that his son, Milton, at the age of eighteen, had joined the United Brethren church.

At the time he got married, Dan Wright worked at a distillery. However, he clearly wasn’t comfortable with his job and decided to leave the distillery to focus entirely on farming. Additionally, he became religious and refused to sell his corn to distillers anymore. Perhaps it was due to Dan Wright's strong religious beliefs that his son, Milton, joined the United Brethren church at the age of eighteen.

Milton Wright attended a small college in near-by Hartsville, Indiana, and at the age of twenty-two he received from the United Brethren church his certificate entitling him to preach. But he did not at once actively enter the ministry. The pioneer urge was in him and he went to the Willamette Valley, in Oregon, where for two years he was a teacher in a small college conducted under the auspices of the church. It was three or four years after finishing his course at Hartsville that he met the young woman, a student there, who was to become his wife. Mutual friends had spoken to him of Susan Catherine Koerner, of how charming, how “smart” she was, and when he found an opportunity to be introduced to her, he was by no means disinclined to make her acquaintance. They were married on November 24, 1859, a week after his thirty-first birthday.

Milton Wright attended a small college in nearby Hartsville, Indiana, and at the age of twenty-two, he received a certificate from the United Brethren Church that allowed him to preach. However, he didn't immediately enter the ministry. He felt a strong desire to explore new places and moved to the Willamette Valley in Oregon, where he spent two years teaching at a small college associated with the church. It was three or four years after completing his studies in Hartsville that he met the young woman, a student there, who would become his wife. Friends had told him about Susan Catherine Koerner, mentioning how charming and “smart” she was, and when he had the chance to meet her, he was definitely interested in getting to know her. They got married on November 24, 1859, just a week after his thirty-first birthday.

During the first few years after their marriage, the Milton Wrights lived at several different places in Indiana. Their first child, Reuchlin, was born in March, 1861, on a farm2 near Fairmount; and Lorin, the second son, a year and a half later, in Fayette County, at the home of his grandparents. When Wilbur was born, April 16, 1867, the family was living on a small farm23 the father had bought near the village of Millville, eight miles east of New Castle. Wilbur was named for Wilbur Fiske, a churchman whom the father admired; but his name did not include the Fiske. None of the Wright children ever had a middle name.

During the first few years after their marriage, the Milton Wrights lived in a few different places in Indiana. Their first child, Reuchlin, was born in March 1861 on a farm2 near Fairmount, and Lorin, their second son, was born a year and a half later in Fayette County at his grandparents' home. When Wilbur was born on April 16, 1867, the family was living on a small farm23 that the father had purchased near the village of Millville, eight miles east of New Castle. Wilbur was named after Wilbur Fiske, a churchman that his father admired, though his name didn't include Fiske. None of the Wright children ever had a middle name.

For a year, the Rev. Milton Wright was minister of a church at Hartsville, and also taught in the college he had attended there. Then, in June, 1869, he became editor of the Religious Telescope, a United Brethren weekly, at Dayton, the home of those pioneer ancestors.

For a year, Rev. Milton Wright was the minister of a church in Hartsville and also taught at the college he had attended there. Then, in June 1869, he became the editor of the Religious Telescope, a United Brethren weekly, in Dayton, the home of his pioneer ancestors.

A year or more after their arrival for their first stay in Dayton, the Wright family bought, while it was still under construction, a modest seven-room house at 7 Hawthorne Street. This was on the West Side, across the Miami river, and about a mile from the main business section. Here Orville Wright—named for Orville Dewey, a Unitarian minister—was born on August 19, 1871; and his sister, Katharine, three years later to the day.

A year or more after arriving for their first stay in Dayton, the Wright family bought a modest seven-room house at 7 Hawthorne Street while it was still being built. This house was on the West Side, across the Miami River, and about a mile from the main business area. Here, Orville Wright—named after Orville Dewey, a Unitarian minister—was born on August 19, 1871, and his sister, Katharine, was born three years later on the same day.

During the family’s absence in Cedar Rapids and Richmond, the Hawthorne Street house was rented, but the Wright family was once again to live there, for in June, 1884, the Rev. Milton Wright’s work brought him from Richmond back to Dayton. When, sixteen months later, the tenant’s lease expired and they were settled again at 7 Hawthorne Street, all the family felt that they were where they “belonged.”

During the family's time away in Cedar Rapids and Richmond, the house on Hawthorne Street was rented out, but the Wright family was set to move back in. In June 1884, Rev. Milton Wright's job brought him from Richmond back to Dayton. When the tenant's lease ended sixteen months later and they returned to 7 Hawthorne Street, everyone in the family felt that they were finally back where they “belonged.”

The family’s return to Dayton was a few days before Wilbur would have been graduated from high school at Richmond. With the final year of the course so nearly completed, he would have received his diploma if24 he had been present with his class on commencement day. But Wilbur did not consider the mere diploma itself important enough to justify a trip back to Richmond, even though the distance was less than fifty miles. His decision was a subject for family talks and all agreed that Wilbur should do as he thought best. The father felt, as did the others, that receiving a diploma was ceremonial and less important than the actual education gained.

The family's return to Dayton was a few days before Wilbur would have graduated from high school in Richmond. With the final year of the course almost finished, he would have received his diploma if24 he had been there with his class on graduation day. But Wilbur didn’t think the diploma itself was worth making the trip back to Richmond, even though it was less than fifty miles away. His decision became a topic for family discussions, and everyone agreed that Wilbur should do what he felt was right. His father, like the others, believed that receiving a diploma was just a formality and less significant than the actual education he had gained.

Wilbur decided to take a special course at the high school in Dayton the next year. He wished especially to continue the study of Greek, and to learn trigonometry.

Wilbur decided to take a special course at the high school in Dayton the next year. He especially wanted to continue studying Greek and learn trigonometry.

Orville had been in the sixth grade at Richmond, but a week or two before the end of the year he got into a bit of mischief that caused his teacher, Miss Bond, to dismiss him. She said he could not return to school until either his father or mother came with him to guarantee that his deportment would improve. But his father was away from home at the time, and his mother was too busy packing for the move to Dayton to take time for consultation with that teacher. Orville simply stayed out of school for the rest of the year.

Orville was in sixth grade at Richmond, but one or two weeks before the school year ended, he got into some trouble that led his teacher, Miss Bond, to kick him out. She told him he couldn't come back to school until either his dad or mom came with him to promise that his behavior would get better. But his dad was away from home at the time, and his mom was too busy packing for the move to Dayton to meet with that teacher. So, Orville just stayed out of school for the rest of the year.

When he entered school in Dayton the next September, with no certificate to show that he had completed the sixth grade, it looked as if he might have to be in that grade for another year. But Orville was so violent and uncompromising in his protests that the school authorities said he might try the seventh grade until they could see how well he got along. At the end of the year he passed into the eighth grade with the highest mark in arithmetic in the city.

When he started school in Dayton the following September, without a certificate to prove he had finished sixth grade, it seemed like he would have to repeat that grade for another year. However, Orville was so passionate and determined in his objections that the school officials agreed to let him attempt the seventh grade while they evaluated how well he would do. By the end of the year, he advanced to eighth grade with the highest score in arithmetic in the city.

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When Orville entered the eighth grade, Miss Jennings, who taught grammar, evidently thought she detected something mischievous about him and assigned him to a front seat in her class.

When Orville started eighth grade, Miss Jennings, the grammar teacher, seemed to think he had a bit of mischief in him and placed him in a front seat in her class.

The next year, the same teacher had been promoted to the high school, as a teacher of algebra, and again she put Orville up in front where she could keep an eye on him. Orville’s front seats became a subject for family jests.

The next year, the same teacher was promoted to the high school as an algebra teacher, and once again she positioned Orville at the front where she could keep an eye on him. Orville’s front seats became a source of family jokes.

Later on in his high school course, Orville was demonstrating a problem in geometry on the blackboard, when his teacher, Miss Wilson, pointed out that though he had the correct answer, he evidently had not followed the textbook.

Later on in his high school class, Orville was demonstrating a geometry problem on the board when his teacher, Miss Wilson, pointed out that even though he had the right answer, he clearly hadn't followed the textbook.

“I got it out of another book—Wentworth’s geometry,” Orville explained. And he added: “I get a lot of good stuff from Wentworth.”

“I got it from another book—Wentworth’s geometry,” Orville explained. And he added: “I find a lot of good material in Wentworth.”

Instead of complimenting him on having enough interest in the subject to consult another source, the teacher chided him for referring to what she called “a beautiful science” as “stuff.”

Instead of praising him for being interested enough in the subject to look up another source, the teacher scolded him for calling what she referred to as “a beautiful science” “stuff.”

Orville had no compunction about telling at meal time of such episodes. He knew he wouldn’t be scolded. It was simply good conversational material and would provoke sympathetic laughter.

Orville had no hesitation about sharing stories like that during meals. He knew he wouldn't get in trouble. It was just good conversation and would inspire sympathetic laughter.

The family was interested, too, in the inventiveness of the boys. Lorin had once invented an improvement on a hay-baling machine. Wilbur had designed and built a practical device for folding paper. This was while he had the contract for folding the entire weekly issue of an eight-page church paper. He had found the hand26 work tedious and got up a machine that could be worked by a foot-treadle.

The family was also intrigued by the creativity of the boys. Lorin had once come up with an improvement for a hay-baling machine. Wilbur had designed and built a useful device for folding paper. This was when he had the contract to fold the entire weekly issue of an eight-page church paper. He had found the manual work tedious and created a machine that could be operated with a foot pedal.

For a long time the mechanical ability that had aroused the most family admiration, though, was in the mother. Susan Koerner Wright was more than ordinarily resourceful in adapting household tools or utensils to unexpected uses. She was clever at designing clothes, too; and once she had built a sled for the two older boys. As her family used to say, she “could mend anything.”

For a long time, the skill that got the most admiration from the family was the mother’s. Susan Koerner Wright was particularly resourceful at finding unexpected uses for household tools and utensils. She was also skilled at designing clothes, and she once made a sled for the two older boys. As her family used to say, she “could fix anything.”

The mother, however, was not long to be spared to her family. On July 4, 1889, or less than four years after the return to Hawthorne Street, she died. During the latter years of her life, Wilbur was much with his mother, and devoted himself almost constantly to her care, for he too at that time was an invalid, unable to engage in much outdoor activity.

The mother, however, didn't stay with her family for long. On July 4, 1889, less than four years after returning to Hawthorne Street, she passed away. In her final years, Wilbur spent a lot of time with his mother and dedicated himself almost entirely to her care, as he was also unwell at that time and unable to participate in much outdoor activity.

Wilbur’s illness was in consequence of an accident. While playing a game of shinny, on skates, he was hit in the face with a shinny club. The blow knocked out all his upper front teeth. He began to suffer from a heart disorder from which he did not completely recover for several years.

Wilbur's illness was due to an accident. While playing shinny on skates, he was struck in the face with a shinny stick. The impact knocked out all his upper front teeth. He started to experience a heart issue from which he didn't fully recover for several years.

After the death of the mother, and the departure of the two older brothers to establish homes of their own, the other members of the Wright family were all the more drawn together. Whatever one of them was doing interested all. And all—especially Wilbur—did much reading.

After their mother died and the two older brothers moved out to start their own families, the rest of the Wright family became even closer. Everyone was interested in what the others were doing. And everyone—especially Wilbur—spent a lot of time reading.

Two groups of books were in the home, one in Bishop Wright’s study upstairs, and another, used by27 the family, downstairs in the living room. Nearly all the books in the father’s library were “very serious,” but Wilbur often dipped into them, though the father made no effort to direct or control anyone’s reading. Downstairs, however, were the books that both Wilbur and Orville liked best. These included a set of Washington Irving’s works, both Grimm’s and Andersen’s fairy tales, Plutarch’s Lives, a set of the Spectator, a set of Addison’s essays, Boswell’s Life of Johnson, a set of Sir Walter Scott, Gibbon’s Decline and Fall of the Roman Empire, Green’s history of England, Guizot’s France, an incomplete set of Nathaniel Hawthorne, and a set in which was Marey’s Animal Mechanism. Here also were a set of the Encyclopaedia Britannica and Chambers’ Encyclopedia. The Britannica was an edition of the late 70’s and the Chambers’ Encyclopedia was an earlier edition. Though Wilbur was the great reader, Orville was not far behind him. He was fascinated by scientific articles in the encyclopedia almost from the time he learned to read.

Two groups of books were in the house, one in Bishop Wright’s study upstairs, and another that the family used downstairs in the living room. Almost all the books in the father’s library were “very serious,” but Wilbur often browsed through them, even though the father didn’t try to control anyone’s reading. Downstairs, however, were the books that both Wilbur and Orville liked the most. These included a collection of Washington Irving’s works, both Grimm’s and Andersen’s fairy tales, Plutarch’s Lives, a collection of the Spectator, a set of Addison’s essays, Boswell’s Life of Johnson, a collection of Sir Walter Scott, Gibbon’s Decline and Fall of the Roman Empire, Green’s history of England, Guizot’s France, an incomplete set of Nathaniel Hawthorne, and a collection that included Marey’s Animal Mechanism. There was also a set of the Encyclopaedia Britannica and Chambers’ Encyclopedia. The Britannica was an edition from the late 70s and the Chambers’ Encyclopedia was an earlier edition. While Wilbur was the big reader, Orville wasn’t far behind. He was captivated by scientific articles in the encyclopedia almost from the time he learned to read.

Wilbur and Orville from time to time contributed to the family comfort in a substantial way. They built a spacious front porch, and all the lathe work for the posts they did themselves. Then they remodeled the interior of the house, changing the arrangement of the rooms. Other members of the family felt as much pride in such handiwork as if they had done it themselves.

Wilbur and Orville occasionally helped make the family comfortable in a big way. They built a large front porch and did all the lathe work for the posts themselves. Then they redesigned the inside of the house, changing the layout of the rooms. Other family members felt just as much pride in that work as if they had done it themselves.

More than their sturdy, intelligent, pioneer ancestry, it was probably the kind of home they lived in that had most to do with what the younger brothers were later to achieve. Orville expressed that with deep conviction28 many years afterward. A friend of his had remarked to him: “Even though what you accomplished was without the idea of making money, the fact remains that the Wright brothers will always be favorite examples of how American lads with no special advantages can get ahead.”

More than their strong, smart, pioneering background, it was probably the type of home they grew up in that had the biggest impact on what the younger brothers would later achieve. Orville stated this with strong belief28 many years later. A friend of his once told him: “Even though what you accomplished wasn’t focused on making money, the truth is that the Wright brothers will always be prime examples of how American boys with no special advantages can succeed.”

“But,” said Orville seriously, “that isn’t true. Because, you see, we did have special advantages.”

“But,” Orville said seriously, “that’s not true. Because, you see, we did have some special advantages.”

“What special advantages do you mean?”

“What specific advantages are you referring to?”

“Simply that we were lucky enough to grow up in a home environment where there was always much encouragement to children to pursue intellectual interests; to investigate whatever aroused curiosity. In a different kind of environment our curiosity might have been nipped long before it could have borne fruit.”

“Basically, we were fortunate to grow up in a home where children were always encouraged to pursue their intellectual interests and explore whatever sparked their curiosity. In a different kind of environment, our curiosity might have been stifled long before it had a chance to develop.”


At the age of twelve, while living in Richmond, Indiana, Orville Wright became interested in wood engravings. His curiosity had been stirred by seeing some woodcuts by Timothy Cole and T. Johnson in the Century magazine. Wondering how the cuts were made he began to search the encyclopedia and one or two other books that told a little about the technique used. He then decided that he might be able to make some woodcuts himself if he had a suitable tool—and he went ahead to fashion such a tool from the spring of an old pocket-knife. (The next Christmas, Wilbur gave him a set of engraving tools.)

At the age of twelve, while living in Richmond, Indiana, Orville Wright got interested in wood engravings. His curiosity was sparked after seeing some woodcuts by Timothy Cole and T. Johnson in the Century magazine. Curious about how the cuts were made, he started looking through the encyclopedia and a couple of other books that explained a bit about the technique. He then decided he could try making some woodcuts himself if he had the right tool—so he went ahead and created one from the spring of an old pocket knife. (The next Christmas, Wilbur gave him a set of engraving tools.)

After trying his hand at his first few woodcuts, Orville naturally wished to make prints from them, and for this purpose he used a press his father had for copying letters. Today seldom seen, the old-fashioned letter-press consisted of two horizontal metal plates that could be forced close together by turning a little circular handle at the top of a threaded rod attached to the upper plate. One’s letter was moistened and placed next to a thin tissue sheet in a record book which went between the plates of the press. Under pressure, a copy of the letter was transferred to the tissue. Such a press was a fascinating device for a boy to play with. Indeed, Orville30 had used it for other purposes than that for which it was intended. It had also served him as a vise. And now it worked fairly well for making proofs from his woodcuts.

After trying out his first few woodcuts, Orville naturally wanted to make prints from them, so he used a press that his father had for copying letters. Rarely seen today, the old letter press consisted of two horizontal metal plates that could be squeezed together by turning a small circular handle at the top of a threaded rod connected to the upper plate. A letter was moistened and placed next to a thin tissue sheet in a record book, which went between the plates of the press. Under pressure, a copy of the letter was transferred to the tissue. This press was a fascinating device for a boy to play with. In fact, Orville30 had used it for other purposes besides its original intent. It had also been used as a vise. And now it worked quite well for making proofs from his woodcuts.

It was at about this time that the Wright family returned to Dayton from Richmond, and Orville renewed close relations with his old chum, Ed Sines. To his delight he found that young Sines was already interested in printing. He had a small press, obtained by trading a file, covering more than a year, of a boys’ magazine called Golden Days. This press was little more than a toy, capable of printing only one narrow line at a time, and the boys were never able to make much use of it. But, nevertheless, they immediately formed the printing firm of Sines & Wright.

It was around this time that the Wright family came back to Dayton from Richmond, and Orville reconnected with his old friend, Ed Sines. To his surprise, he discovered that Ed was already into printing. He had a small press that he got by trading a file for over a year’s worth of a boys’ magazine called Golden Days. This press was barely more than a toy, able to print only one narrow line at a time, and the boys could hardly make good use of it. Still, they quickly set up their printing company, Sines & Wright.

At the beginning of the partnership of Sines & Wright, their printing establishment was in a corner of the Sines kitchen. Ed’s mother summed up the situation there when one day she noticed an envelope addressed to “Messrs. Sines & Wright,” from a type foundry. “It must be for you,” she said to the partners, “for you certainly are a pair of messers.”

At the start of the partnership between Sines & Wright, their print shop was located in a corner of the Sines kitchen. One day, Ed's mom captured the essence of the situation when she saw an envelope addressed to “Messrs. Sines & Wright” from a type foundry. “It must be for you,” she told the partners, “because you definitely are a couple of messers.”

Interested as they were in printing, Ed Sines and Orville had time for other hobbies. One of these was a telegraph line they rigged up between their homes. For years Wilbur Wright referred to it as “the first wireless telegraph,” because the boys used to shout the messages back and forth to verify whatever they clicked out on the keys.

Interested as they were in printing, Ed Sines and Orville had time for other hobbies. One of these was a telegraph line they set up between their homes. For years, Wilbur Wright called it “the first wireless telegraph,” because the boys would shout the messages back and forth to confirm whatever they tapped out on the keys.

It soon became evident that Orville had printers’ ink in his blood. This printing hobby was more than a passing31 fancy. His father was impressed by the boy’s persistence in trying to use inadequate equipment. The father knew that two of his older sons, Wilbur and Lorin, had recently had a chance to trade a boat they had made, now seldom used, for a small printing press. If they would make that trade, he suggested, and donate the press to Orville, then he would buy for the youngster twenty-five pounds of brevier type. This deal was made. The new press would print anything up to 3 by 4½ inches.

It quickly became clear that Orville was a natural with printers’ ink. His passion for printing was more than just a hobby. His father was impressed by the boy’s determination to make the most of his limited equipment. He remembered that two of his older sons, Wilbur and Lorin, had recently had the opportunity to trade a rarely used boat they made for a small printing press. He suggested that if they made that trade and gave the press to Orville, he would buy the kid twenty-five pounds of brevier type. The deal was done. The new press could print anything up to 3 by 4½ inches.

As the Sines kitchen was not quite the ideal location for their printing plant, Orville arranged for quarters in a “summer kitchen,” not often used, at the Wright home.

As the Sines kitchen wasn't the best spot for their printing plant, Orville set up space in a rarely used "summer kitchen" at the Wright home.

It now occurred to Messrs. Sines & Wright that it might be a good idea to print a newspaper for the benefit of their eighth grade classmates. They called it The Midget. Because of the limited capacity of their press, the paper was necessarily small, two narrow columns wide and four and one-half inches long. Most of the items in it were put directly into type, as they thought of them, and not from previously prepared copy. They found that the four pages they had planned entailed a surprising amount of work and to reduce this they put nothing on page three except “Sines & Wright,” twice, diagonally across the page, in script type. After they had printed about one hundred copies for distribution, Orville’s father saw one of these and immediately placed a ban on the whole issue. He insisted that the boys had not done themselves justice in slighting that third page.32 Readers of the paper, he said, might get the impression that the publishers were lazy or shiftless.

It occurred to Messrs. Sines & Wright that printing a newspaper could be a great idea for their eighth-grade classmates. They named it The Midget. Due to the limited capacity of their press, the paper was small, two narrow columns wide and four and a half inches long. Most of the content was set in type as they thought of it, rather than from pre-prepared copy. They discovered that the four pages they had planned required a surprising amount of work, so to cut down on this, they printed nothing on page three except “Sines & Wright,” twice, diagonally across the page, in script type. After they printed about one hundred copies for distribution, Orville’s father saw one and immediately banned the entire issue. He insisted that the boys had not done themselves justice by neglecting that third page.32 According to him, readers of the paper might think the publishers were lazy or irresponsible.

In a way, this suppression of the issue came almost as a relief, for the publishers had begun to feel misgivings about one somewhat daring item they had taken the liberty of printing. It was about their teacher, Miss Jennings, who was a strict disciplinarian. The item read: “Next week we propose to publish one of Miss Jennings’ famous lectures before the pupils of the Intermediate School on the Inherent Wickedness of School Children.”

In a way, this hush-hush about the issue felt like a relief, because the publishers were starting to have doubts about a pretty bold piece they had taken the liberty to print. It was about their teacher, Miss Jennings, who was known for her strict discipline. The piece said: “Next week we plan to publish one of Miss Jennings’ famous lectures given to the students of the Intermediate School on the Inherent Wickedness of School Children.”

Maybe, they reflected, it was just as well that The Midget was not to be distributed. Miss Jennings might take the item as good clean fun, but, on the other hand, she might raise a rumpus.

Maybe, they thought, it was just as well that The Midget wasn't going to be distributed. Miss Jennings might see it as harmless fun, but then again, she could cause a big fuss.

Before long the partners had an opportunity to buy a quantity of display type for $2, and then they began trying to establish themselves in the job-printing business. They set up their headquarters in the Wright barn, though on cold days they were likely to do their typesetting on a table in the Wright dining-room. Neighborhood storekeepers gave them a few orders for printing, and the firm began to take on airs. They employed Forrest Whitfield, a neighbor boy, as printer’s devil. He commanded a weekly wage of fifteen cents.

Before long, the partners had a chance to buy a bunch of display type for $2, and then they started trying to establish themselves in the job-printing business. They set up their headquarters in the Wright barn, although on cold days they were more likely to do their typesetting at a table in the Wright dining room. Local shopkeepers gave them a few printing orders, and the firm started to get a bit proud. They hired Forrest Whitfield, a neighbor boy, as the printer’s assistant. He earned a weekly wage of fifteen cents.

All was going well until one day they received an order from a man who wished to pay for his printing not in money but in popcorn. He assured them that this popcorn, on the cob, was worth more than the $2 the printing would have cost. But before deciding if they should accept the popcorn in payment, the partners prudently33 went to a grocer to get an estimate of its value. Sure enough, it was worth $2, and the grocer offered to buy it from them at that price.

Everything was going smoothly until one day they got an order from a guy who wanted to pay for his printing with popcorn instead of cash. He insisted that this popcorn, still on the cob, was worth more than the $2 the printing would have cost. Before making a decision on whether to accept the popcorn as payment, the partners wisely33 went to a grocer to see how much it was worth. Sure enough, it was valued at $2, and the grocer offered to buy it from them for that amount.

Now Orville saw greater opportunities opening before them. With a liquid capital of $2, they could buy more type, do a greater variety of printing, and thus have more fun. But Ed Sines thought there was such a thing as over-extension of plant and equipment. Why not just divide their popcorn and eat it? Each was so uncompromising in his convictions that there was only one thing to do: one must buy out the other and they would dissolve the partnership. Inasmuch as Orville already owned the press they were using and most of the type, it seemed logical that he should be the buyer. By paying his share of the popcorn he was able to take over his partner’s interest without much cash outlay. Thenceforth, when they worked together, as from time to time they continued to do, Ed Sines was no longer co-proprietor but an employee.

Now Orville saw greater opportunities ahead of them. With only $2 in liquid capital, they could buy more type, diversify their printing, and have more fun. But Ed Sines believed that there was such a thing as overextending their plant and equipment. Why not just split their popcorn and eat it? Each was so firm in his beliefs that there was only one option: one had to buy out the other, and they would end the partnership. Since Orville already owned the press they were using and most of the type, it made sense for him to be the buyer. By covering his share of the popcorn, he was able to take over his partner’s interest without much cash outlay. From then on, when they worked together, as they occasionally still did, Ed Sines was no longer a co-owner but an employee.

At about this time, something set Orville to thinking of how interesting it would be to print circus bills. He wished some of his friends would organize a circus. Then he could do their printing. The idea seemed worth promoting. He went to the Truxell boys, and Fred LaRue, neighbors up the street, and convinced them that they had just the kind of abilities to organize and present a wonderful circus—one that would make a great hit with all the kids. The result of this talk was The Great Truxell Bros. & LaRue Show. Orville refused to accept any payment for printing the handbills34 and tickets of admission to the big show. The fun of doing it was all the reward he wanted.

Around this time, Orville started thinking about how cool it would be to print circus posters. He hoped some of his friends would put together a circus, so he could handle the printing. The idea seemed worth pursuing. He talked to the Truxell boys and Fred LaRue, who lived up the street, and convinced them that they had the right skills to organize and put on an amazing circus—one that all the kids would love. As a result, they created The Great Truxell Bros. & LaRue Show. Orville didn’t want any payment for printing the flyers and tickets for the big event. The fun of doing it was all the reward he needed.34

Mrs. Wright had cleared out an upstairs room for Orville’s printing activities and that was his base for some time. He began to feel the need for a larger printing press and he determined to build one. The bed for the new press was an old gravestone he got from a marble dealer.

Mrs. Wright had cleared out an upstairs room for Orville’s printing activities, and that became his workspace for a while. He started to feel the need for a larger printing press and decided to build one. The base for the new press was an old gravestone he got from a marble dealer.

This press would print a sheet eleven by sixteen inches. Orville could now undertake larger printing projects. One order required more type than he had on hand. But that didn’t stop him. After he had used up all his type, with the job only half done, he recalled having heard of stereotype plates. He looked up in an encyclopedia a description of how such plates were cast from the impression of the original type in wet cardboard. And he contrived to make such a plate from the type already set. Then he redistributed that type for use in setting the rest of the job.

This press could print a sheet that was eleven by sixteen inches. Orville was now able to take on larger printing projects. One order needed more type than he had available. But that didn’t stop him. After he had used all his type and was only halfway through the job, he remembered hearing about stereotype plates. He found a description in an encyclopedia of how those plates were made from the impression of the original type in wet cardboard. He figured out how to create a plate from the type he had already set. Then, he rearranged that type for use in completing the rest of the job.

Ambitious to be a really good printer, Orville took employment during two summer vacations with a printing establishment in Dayton, and worked there sixty hours a week. But he felt that the most fun and satisfaction in connection with printing had been from building his own press. Along in the spring of 1888, when he was nearly seventeen years old, he started to build another press, bigger than any he had used before. He didn’t know exactly what he would do with it, but that question did not yet give him much concern. He would have the fun of building it. In the family woodshed was a pile of fire-wood cut in four-foot lengths.35 From these he made much of the framework, though he had to buy at a lumber yard a few longer pieces. From near-by junk yards he collected odds and ends of iron or steel that could be used. A difficult problem was to find a means of forcing the type against the printing surface, always with the same pressure, just enough and not too much. Orville searched the Wright barn and tool-shed for something that could be adapted, but without success until his eye happened to alight on the old family buggy. The buggy had a folding top, held firmly in place, when raised, by steel bars hinged in the middle. They were designed to force the top just so far and no farther. Exactly what he needed!

Eager to become a great printer, Orville worked at a printing shop in Dayton during two summer vacations, putting in sixty hours a week. However, he found the most enjoyment and satisfaction in printing came from building his own press. In the spring of 1888, when he was almost seventeen, he began constructing another press, larger than any he had used before. He wasn’t quite sure what he would do with it, but that didn’t concern him much. He was excited about the process of building it. In the family woodshed, there was a pile of firewood cut into four-foot lengths. He used many of these pieces for the framework, although he did buy a few longer ones from a lumber yard. He also gathered random pieces of iron or steel from nearby junkyards that could be useful. One tricky challenge was figuring out how to apply even pressure to the type against the printing surface—just enough, but not too much. Orville searched the Wright barn and tool shed for something suitable, but he didn’t have any luck until he noticed the old family buggy. The buggy had a folding top, secured when raised by steel bars that were hinged in the middle. They were designed to push the top up just the right amount, no more. Exactly what he needed!35

The job turned out to be much more difficult than Orville had expected, and Wilbur Wright, observing his kid brother at a tough job, offered to help him build the press. Some of the suggestions Wilbur made for moving parts of that press were peculiar in that they seemed to violate all mechanical rules and could not possibly be expected to work. Yet they did. Some time later, a well-dressed stranger entered the shop where Orville, merrily whistling, was feeding paper into his press, and asked if he might look at that “home-made printing outfit.” He had heard about it while visiting in Dayton. What at once astonished Orville and two or three boys in the shop was that the visitor, with complete disregard for his good clothes, lay right down flat on his back on the floor to study the press in operation. After he had observed it for several minutes, he got up, brushed himself off, and remarked: “It works all right, but I still don’t understand why it works.” Before leaving36 he laid his card on a table. He was the foreman of the pressroom of a newspaper in Denver.

The job was much harder than Orville had expected, and Wilbur Wright, seeing his younger brother struggling, offered to help him build the press. Some of Wilbur’s ideas for moving parts of the press were odd, seeming to break all the mechanical rules and not likely to work. But they did. A little later, a well-dressed stranger walked into the shop where Orville was happily whistling while feeding paper into his press and asked if he could check out that “homemade printing setup.” He had heard about it during a visit to Dayton. What surprised Orville and a couple of boys in the shop was that the visitor, completely ignoring his nice clothes, lay flat on his back on the floor to watch the press in action. After watching for several minutes, he got up, brushed himself off, and said, “It works fine, but I still don’t understand why it works.” Before he left36, he placed his card on a table. He was the foreman of the pressroom at a newspaper in Denver.

Now that he had his new press, Orville wished he could put it to some purpose to make full use of the greatly increased printing capacity. The press was big enough and fast enough to print a newspaper. Why not start a neighborhood weekly? He had hardly more than thought of this before he decided to do so. It was probably the first time a paper was ever started just to use a press.

Now that he had his new printer, Orville wished he could use it effectively to take advantage of its much greater printing capacity. The printer was big and fast enough to print a newspaper. Why not start a neighborhood weekly? He barely finished thinking about it before he decided to go for it. It was probably the first time a publication was started just to utilize a printer.

Orville now rented a room on West Third Street, near Broadway. The first issue of the paper—four three-column pages—appeared on March 1, 1889. In his salutatory, Orville said: “This week we issue the first number of the West Side News, a paper to be published in the interests of the people and business institutions of the West Side. Whatever tends to their advancement, moral, mental, and financial, will receive our closest attention.”

Orville now rented a room on West Third Street, near Broadway. The first issue of the paper—four three-column pages—was released on March 1, 1889. In his welcoming message, Orville said: “This week we’re publishing the first edition of the West Side News, a paper dedicated to serving the people and businesses of the West Side. Anything that contributes to their progress, whether moral, mental, or financial, will get our full focus.”

There were seventeen advertisements. A leading feature was a story about Abraham Lincoln and General Sherman, from the Youth’s Companion; and there was an article about Benjamin Franklin. The range of the publisher’s reading was indicated by a number of short paragraphs on foreign affairs, and about the approaching inauguration of President-elect Benjamin Harrison. Altogether it was a creditable job. No boyish “boners” or typographical errors were to be found.

There were seventeen ads. A standout piece was a story about Abraham Lincoln and General Sherman from the Youth’s Companion; there was also an article about Benjamin Franklin. The publisher's broad reading interests were shown by several short paragraphs on international issues and the upcoming inauguration of President-elect Benjamin Harrison. Overall, it was a solid job. There were no childish mistakes or typos to be found.

All copies of the first issue were distributed free, as samples, but the paper was soon a fairly profitable enterprise. After the first few numbers, it was enlarged from three columns wide to four columns. Ed Sines devoted37 himself to rounding up advertisements and news items. From time to time Wilbur Wright helped to fill space by writing humorous essays, and after a few weeks his name was added to the paper’s masthead as “editor,” along with Orville’s as publisher.

All copies of the first issue were given out for free as samples, but the paper quickly became a pretty profitable business. After the first few editions, it was expanded from three columns wide to four columns. Ed Sines focused on gathering advertisements and news items. Occasionally, Wilbur Wright contributed by writing humorous essays to help fill up space, and after a few weeks, his name was added to the paper's masthead as "editor," alongside Orville's as publisher.

Another contributor to the West Side News was a young Negro lad, a friend of Orville since grammar grades, Paul Laurence Dunbar, whose poetry afterward made him famous. Dunbar, in 1890, started a paper, The Tattler, for Negro readers, and Orville did the printing.

Another contributor to the West Side News was a young Black guy, a friend of Orville since elementary school, Paul Laurence Dunbar, whose poetry later made him famous. Dunbar, in 1890, started a paper, The Tattler, for Black readers, and Orville did the printing.

By the time the West Side News had been running a year, Orville had completed his course in high school. He thought the final year, devoted in the regular course largely to review, would hardly justify the time. Instead, having it in mind that he might decide to go to college and would need additional credits for college entrance requirements, he was a special student in Latin during that fourth year, attending high school an hour or two a day. The two elder Wright brothers had attended college in Iowa and Indiana, and later their sister Katharine took a degree at Oberlin, but both Wilbur and Orville gave up the idea of going to college, and neither ever received a diploma from high school. It may be added, however, that Orville in later years never agreed with those who suggested that “college might have ruined the Wright brothers.” More than once he said they doubtless could have done their scientific work more easily if they had had the advantage of college education.

By the time the West Side News had been publishing for a year, Orville had finished high school. He felt that the final year, mostly focused on review in the regular curriculum, wasn’t worth the time. Instead, thinking about possibly attending college and the need for extra credits for admission, he took Latin as a special student during that fourth year, going to high school for an hour or two each day. The two older Wright brothers had gone to college in Iowa and Indiana, and later their sister Katharine earned a degree at Oberlin, but both Wilbur and Orville abandoned the idea of attending college, and neither of them received a diploma from high school. However, it’s worth noting that in later years, Orville never agreed with those who claimed that “college might have ruined the Wright brothers.” He often said they could have likely done their scientific work more easily if they had the benefits of a college education.

Having decided, partly because of interest in the job at hand, not to go to college, Orville, in April, 1890, with Wilbur as partner, converted the West Side News38 from a weekly to a four-page, five-column daily, called The Evening Item.

Having made the decision, partly due to his interest in the job, not to attend college, Orville, in April 1890, along with his brother Wilbur, transformed the West Side News38 from a weekly publication into a four-page, five-column daily newspaper named The Evening Item.

This venture, though it showed no loss, was never profitable. At that time the perfecting-press was coming into use and Dayton newspapers were issuing big, thick editions that proved to be increasingly keen competition for a small neighborhood sheet. After about four months the paper was suspended. But, as late as 1894, Orville and Wilbur published for a time a little two-column weekly called Snapshots, devoted to vigorous comments on current local events. After the first issue or two these were usually written by Wilbur.

This venture, while it didn't show any losses, was never profitable. At that time, the printing press was becoming popular, and newspapers in Dayton were putting out large, thick editions that posed a growing challenge for a small neighborhood paper. After about four months, the publication was stopped. However, as late as 1894, Orville and Wilbur published a small two-column weekly called Snapshots, which featured strong commentary on current local events. After the first few issues, these were mostly penned by Wilbur.

Both Orville and Wilbur now became absorbed in one more new interest. Orville had owned in Richmond an old high wheel bicycle for which he had paid $3—borrowed from Wilbur. Now, a new European type of bicycle with wheels about the same size, and called a “safety,” had begun to be popular. In 1892, Orville bought one of these, a Columbia. It had pneumatic tires and cost $160. Six months later, Wilbur got a bicycle. His was an Eagle and he was able to get it at an auction for $80.

Both Orville and Wilbur became really interested in something new. Orville had owned an old high wheel bicycle in Richmond that he bought for $3—money he borrowed from Wilbur. Now, a new style of bicycle from Europe, called a “safety,” which had wheels about the same size, was becoming popular. In 1892, Orville purchased one of these, a Columbia, which had pneumatic tires and cost $160. Six months later, Wilbur got a bicycle too. His was an Eagle, and he managed to get it at an auction for $80.

Orville promptly became interested in track-racing and began to enter his name in various local racing events. Wilbur, though he had been a great athlete—a wonderful fancy skater and the best performer in Dayton on a horizontal bar—never went in for racing, because not yet completely recovered from the effects of his skating accident.

Orville quickly got into track racing and started signing up for different local races. Wilbur, although he had been a fantastic athlete—a great figure skater and the top performer in Dayton on the horizontal bar—never got into racing because he hadn't fully recovered from his skating accident yet.

Within a few weeks or months from the time they bought their bicycles, these Wright brothers decided to39 go into the bicycle business—to sell certain well-known makes. Then they soon found that they would have to add a repair shop. Their first sales room was at 1005 West Third Street. They rented it in December, 1892, to be ready for business when the bicycle season began in the early spring of 1893. For a while Orville divided his time between the bicycle shop and the job printing business across the street in which Ed Sines was still employed. (Sines continued to work there until 1898 when an accident to a lame knee forced him to seek another kind of work, and a few months later the shop was sold.)

Within a few weeks or months after they bought their bicycles, the Wright brothers decided to 39 go into the bicycle business—to sell some popular brands. They quickly realized that they also needed to add a repair shop. Their first sales room was at 1005 West Third Street. They rented it in December 1892 to be ready for business when the bicycle season started in early spring 1893. For a while, Orville split his time between the bike shop and the printing business across the street where Ed Sines was still working. (Sines stayed there until 1898 when an injury to his knee forced him to find a different job, and a few months later, the shop was sold.)

The brothers soon had to move their bicycle business to larger quarters, at 1034 West Third Street. They were successful both in selling new machines and general repairing. Among the bicycles they sold at one time or another were the Coventry Cross, Halladay-Temple, Warwick, Reading, Smalley, Envoy and Fleetwing.

The brothers quickly had to relocate their bicycle shop to a bigger space at 1034 West Third Street. They succeeded in both selling new bikes and offering repair services. Among the bicycles they sold at various times were the Coventry Cross, Halladay-Temple, Warwick, Reading, Smalley, Envoy, and Fleetwing.

By 1895 increased business had caused them to move once more, to 22 South Williams Street, and soon they began to manufacture bicycles. The first “custom made” model was called the Van Cleve—after their pioneer ancestors. A later and lower-priced model was the St. Clair; and finally they made a still lower-priced machine called the Wright Special. It sold for as low as $18. Before they were through with the business they had put out under their own brand several hundred bicycles. Many of these were built in the last building the brothers occupied, a remodeled dwelling house at 1127 West Third Street—the building afterward preserved as a40 museum at Henry Ford’s Greenfield Village in Dearborn, Michigan.

By 1895, their growing business led them to relocate again, this time to 22 South Williams Street, and they soon began producing bicycles. The first custom-made model was named the Van Cleve, in honor of their pioneering ancestors. A later, more affordable model was called the St. Clair, and eventually, they introduced an even cheaper bike known as the Wright Special, which sold for as little as $18. By the time they wrapped up the business, they had produced several hundred bicycles under their own brand. Many of these were made in the last building the brothers used, a renovated house at 1127 West Third Street—the building later preserved as a40 museum at Henry Ford’s Greenfield Village in Dearborn, Michigan.

Much of their work when building new bicycles was done in winter, when selling was slack, in rooms upstairs over the shop, and from time to time the brothers were interrupted by the necessity of going down to attend to wants of customers. Sometimes they went down to meet a caller who wished only to borrow their air-pump to inflate a tire. They had no pressure-tank but kept a large hand-pump on the wall near the front door. To avoid needless trips downstairs, the Wrights contrived mechanical means by which they could tell if a caller’s wants required their attention. They took an old two-tone bell, intended to be fastened to a bicycle handlebar, and attached it to the wall in their upstairs work-rooms. By means of wires and other mechanism, the opening of the downstairs door yanked the thumb-lever on the bell in one direction, producing one tone; and shutting the door pulled the little lever in an opposite direction to cause the other tone. The hook on which the air-pump hung was also connected by a wire and a spring to a pointer upstairs. Thus it was possible to have secret knowledge upstairs if the caller might be a real customer or if he “only wanted air.” If he promptly helped himself to the pump, there probably was no need for anyone to go down. Then when the pointer showed that the pump was back on the hook and the bell signaled the closing of the door, on the caller’s departure, the brothers could feel sure they had not missed a sale of any kind by sticking to their work.

Most of their work on building new bicycles took place in the winter when sales were slow, in upstairs rooms above the shop. Occasionally, the brothers were interrupted by the need to go downstairs to assist customers. Sometimes they went down to meet someone who only wanted to borrow their air pump to inflate a tire. They didn't have a pressure tank but kept a large hand pump mounted on the wall near the front door. To avoid unnecessary trips downstairs, the Wrights created a mechanical system to let them know if a visitor's needs required their attention. They took an old two-tone bell designed to attach to a bicycle handlebar and fixed it to the wall in their upstairs workshop. Using wires and other mechanisms, opening the downstairs door pulled a thumb lever on the bell in one direction, ringing one tone; and closing the door pulled the lever back to produce the other tone. The hook where the air pump hung was also connected by a wire and a spring to a pointer upstairs. This allowed them to know upstairs whether the visitor was a genuine customer or if they "just wanted air." If the visitor quickly helped themselves to the pump, it likely meant no one needed to go down. Then, when the pointer indicated that the pump was back on the hook and the bell rang as the door closed, the brothers could be confident they hadn't missed out on any sales by staying focused on their work.

Throughout the time they were repairing, selling,41 and building bicycles, the Wrights continued to make various experiments, just for the fun of it. They made in 1893 what was doubtless the first pair of “balloon” tires ever installed on a vehicle. It was necessary to build a special “front fork” and widen the frame at the rear to make room for the over-sized pneumatics.

Throughout the time they were repairing, selling,41 and building bicycles, the Wrights kept experimenting, just for fun. In 1893, they created what was likely the first pair of "balloon" tires ever put on a vehicle. They had to design a special "front fork" and widen the frame at the back to accommodate the oversized tires.

Orville even found time during this period for experiments having nothing to do with bicycles. Along about 1895, he made a new kind of calculating machine for multiplying as well as for adding. He worked also on a typewriter more simplified than any in existence.

Orville even found time during this period for experiments that had nothing to do with bicycles. Around 1895, he created a new type of calculating machine that could do both multiplication and addition. He also worked on a typewriter that was more simplified than any that existed at the time.

Occasionally the brothers took in trade an old high wheel. They had two of these, about the same size, that they couldn’t sell for much, and the only way to get any benefit from them was to use them in a new way for sport. Why not, they asked themselves, convert them into a tandem? No one had ever heard of two high wheels operated as a unit, and though riding such an outfit might be dangerous, it also would be exciting. They put a swivel in the steel tube connecting the two wheels to prevent it from twisting and breaking. Then they began to practice, to learn the special technique the man on the rear seat had to know. It was a little different from any a bicyclist had needed before—a little like that of a man steering the rear end of a long fire truck. Though it looked fairly easy, only one person besides the Wrights ever succeeded in staying mounted. Indeed, riding even on the front seat was perilous enough. One afternoon Orville took the rear seat with a boy named Tom Thorne in front. As they tried to steer around a hole in the muddy street, the handlebar caught the leg42 of the lad in front, which prevented his turning far enough.

Occasionally, the brothers would trade for an old high wheel. They had two of these, about the same size, that they couldn’t sell for much, and the only way to get any benefit from them was to use them in a new way for fun. Why not, they thought, turn them into a tandem? Nobody had ever heard of two high wheels working together, and although riding such a setup might be risky, it would also be thrilling. They installed a swivel in the steel tube connecting the two wheels to stop it from twisting and breaking. Then they started practicing, learning the special technique the person on the back seat needed to master. It was a bit different from what any cyclist had needed before—kind of like how a person steers the back of a long fire truck. Even though it looked relatively simple, only one person besides the Wrights ever managed to stay balanced. In fact, riding in the front seat was risky enough. One afternoon, Orville took the back seat with a boy named Tom Thorne in front. As they tried to steer around a hole in the muddy street, the handlebar caught the boy’s leg in front, preventing him from turning far enough.

Of course there was a spill. Orville from the rear seat managed to land on his feet, but Tom Thorne, with one leg pinioned, was hurled headfirst to the street. When he came up for air none of his features was to be seen, so thoroughly was he plastered with mud. He looked so frightful that none of the boys who saw the mishap showed any amusement. They were afraid he had ruined his face. But Orville at once realized that the soft mud had prevented any injury and his young friend’s appearance struck him as the funniest thing he had ever seen. For some moments he was doubled up with mirth, unable to control himself, while the other rider, not exactly indignant but unable to enter into the hilarity, stood trying to gouge the mud out of his eyes with his thumbs. It happened that Tom Thorne had an intimate acquaintance with a family living near by and he went there, accompanied by Orville, to ask permission to wash up; but the girl who opened the door, though a lifelong friend, was unwilling to believe the strange-looking creature was anyone she knew. Tom asked her to call her mother. The mother had known him almost from the day of his birth, but she showed no sign of recognition now. She did finally identify him by his voice, however, and told him he might wash at the pump. He was able to remove some of the larger chunks of mud. Then he and Orville took the machine back to the shop. The episode was not one of the Wright triumphs. But neighbors who heard about it smiled and wondered:

Of course there was a spill. Orville from the back seat managed to land on his feet, but Tom Thorne, with one leg pinned down, was thrown headfirst onto the street. When he came up for air, none of his features were visible, so completely was he covered in mud. He looked so awful that none of the boys who witnessed the accident found it funny. They were worried he had ruined his face. But Orville quickly realized that the soft mud had prevented any injury, and his friend's appearance struck him as the funniest thing he had ever seen. For a few moments, he was doubled over with laughter, unable to contain himself, while the other rider, not exactly angry but unable to join in the hilarity, stood there trying to scrape the mud out of his eyes with his thumbs. It turned out that Tom Thorne was familiar with a family living nearby, so he went there with Orville to ask if he could clean up; however, the girl who opened the door, although a lifelong friend, was reluctant to believe the strange-looking figure was anyone she knew. Tom asked her to call her mom. The mother had known him almost since he was born, but she showed no sign of recognizing him now. She finally identified him by his voice, though, and told him he could wash at the pump. He managed to get rid of some of the bigger clumps of mud. After that, he and Orville took the machine back to the shop. The incident wasn't one of the Wright triumphs. But neighbors who heard about it smiled and wondered:

43

43

What will those Wright boys be doing next?

What will those Wright brothers be up to next?

As boys and girls of high school age were potential customers for bicycles, Wilbur Wright thought there should be an effective way to stir their interest in the makes of bicycles sold by the Wright Cycle Co. and he hit on a plan that showed him to have latent genius as an advertising man. He got a copy of a high school examination paper and had printed what appeared to be a set of examination questions—using the same kind of paper and the same typography. Then he arranged with one or two students to distribute these sheets at the high schools. At first glance a student would think he had got hold of an advance copy of an examination paper. But all the questions related to bicycles on sale by the Wrights!

As high school boys and girls were potential customers for bicycles, Wilbur Wright believed there should be a smart way to grab their attention for the bikes sold by the Wright Cycle Co. He came up with a plan that revealed his hidden talent for advertising. He got a hold of a high school exam paper and had printed what looked like a set of exam questions—using the same type of paper and font. Then he arranged for a couple of students to hand out these sheets at the high schools. At first glance, a student would think they had gotten an advance copy of an exam. But all the questions were about the bikes available from the Wrights!

A chum of the Wrights, Cordy Ruse, in 1896 had built the first horseless buggy ever run over the streets of Dayton. The Wrights and others used to sit and talk with him about some of his problems. They had many jokes about the difficulties of hitting upon a suitable ignition system, a workable differential, and other seeming insurmountables. Another problem, caused by the vibration of a horseless carriage, had impressed Wilbur most of all.

A friend of the Wrights, Cordy Ruse, built the first motorized buggy to ever drive on the streets of Dayton in 1896. The Wrights and others would sit and chat with him about some of his challenges. They joked a lot about the difficulties of coming up with a suitable ignition system, a functional differential, and other seemingly impossible issues. One problem that really stuck with Wilbur was the vibrations caused by the motorized carriage.

One day when the Wrights and several others were chatting with Cordy Ruse, Wilbur suddenly slapped his thigh and said:

One day when the Wrights and a few others were talking with Cordy Ruse, Wilbur suddenly slapped his thigh and said:

“I’ve just thought of a wonderful invention! I’ll have it patented. It’s simple enough. All there is to it is a bed sheet to be fastened beneath an automobile to catch all44 the bolts, nuts, and other parts that’ll keep dropping off.”

“I just came up with a great invention! I’m going to get it patented. It’s really simple. All it is, is a bed sheet attached underneath a car to catch all the bolts, nuts, and other parts that keep falling off.”

Orville thought that, crude as horseless carriages were, they were probably the coming thing, and that eventually they might even hurt the bicycle trade. In 1897 he suggested to Wilbur that perhaps they might well give thought to the idea of going into the business of building automobiles.

Orville believed that, as rough as cars were back then, they were likely the future and could eventually impact the bicycle market. In 1897, he suggested to Wilbur that they should consider the idea of starting a car manufacturing business.

No, insisted Wilbur, shaking his head, they would never be practical.

No, Wilbur insisted, shaking his head; they would never be practical.

“To try to build one that would be any account,” declared Wilbur, “you’d be tackling the impossible. Why, it would be easier to build a flying-machine!”

“To try to build one that would actually matter,” declared Wilbur, “you’d be taking on the impossible. Honestly, it would be easier to create a flying machine!”


Ever since the Wright brothers had played with their Pénaud toy helicopter in Cedar Rapids, Iowa, their interest in whatever they chanced to read about flying-machines was probably greater than if the seed had not been planted in childhood.

Always since the Wright brothers had messed around with their Pénaud toy helicopter in Cedar Rapids, Iowa, their interest in anything they happened to read about flying machines was likely stronger than if the idea hadn't taken root in their childhood.

Along in the early 1890’s, both Wilbur and Orville were likely to read any article they saw on a scientific subject, and to talk about it. Occasionally an article in a magazine that came to the Wright home dealt with attempts of man to fly. As time went on, such articles interested the brothers more and more. In 1895, both were impressed—perhaps more than they then realized—by a brief item they had come upon about the glider experiments, in Germany, by Otto Lilienthal. He had been gliding through the air, down the side of a hill, on a machine he had built. That, the brothers thought, must be the king of sports, to go soaring through the air on a gliding machine. They wished they knew more about Lilienthal and his work. All the reports they could find about him were meager enough; but what little they did learn increased their enthusiasm. Lilienthal, “the father of gliding flights,” was to have a tremendous influence on them.

Back in the early 1890s, both Wilbur and Orville were eager to read any article they found on scientific topics and discuss it. Occasionally, a magazine that arrived at the Wright home featured attempts by humans to fly. Over time, these articles captured the brothers' interest more and more. In 1895, they were both struck—perhaps more than they realized at the time—by a short piece they encountered about the glider experiments conducted in Germany by Otto Lilienthal. He had been gliding through the air down the side of a hill on a machine he had built. The brothers thought that must be the ultimate sport, soaring through the sky on a gliding machine. They wanted to know more about Lilienthal and his work. The reports they could find about him were quite limited, but the little information they gathered only fueled their enthusiasm. Lilienthal, known as “the father of gliding flights,” would have a huge impact on them.

Their interest in anything relating to Lilienthal was46 still strong in the summer of the next year, 1896, when Orville was taken ill—typhoid fever. Then, at a time when Orville was still delirious from the fever, Wilbur read that Lilienthal had been killed in a crash of his glider.

Their interest in anything related to Lilienthal was46 still strong in the summer of the following year, 1896, when Orville got sick—typhoid fever. Then, while Orville was still delirious from the fever, Wilbur read that Lilienthal had died in a glider crash.

After Orville was well enough to hear about Lilienthal’s fatal accident, both he and Wilbur felt a greater eagerness than ever to learn more about what Lilienthal had accomplished, as well as of what had been tried by others, toward human flight. Books dealing with attempts of man to fly appeared to be scarce, but the brothers got whatever was available in the Dayton library, besides looking up articles on the subject in the encyclopedia. All they read, however, during the next two or three years did not satisfy their craving for a better understanding of the whole problem of flight.

After Orville was healthy enough to hear about Lilienthal’s tragic accident, both he and Wilbur felt a stronger urge than ever to learn more about what Lilienthal had achieved, as well as what others had tried in the pursuit of human flight. Books about attempts at flying seemed hard to find, but the brothers collected whatever they could from the Dayton library, in addition to searching for articles on the topic in the encyclopedia. However, everything they read over the next two or three years didn’t satisfy their desire for a deeper understanding of the entire issue of flight.

Knowing that the Smithsonian Institution, at Washington, was interested in the subject of human flight, they decided to send a letter to the Smithsonian asking for suggestions as to reading material. The reply, received early in June, 1899, suggested: Octave Chanute’s Progress in Flying Machines; Professor Langley’s Experiments in Aerodynamics; and the Aeronautical Annuals of 1895, 1896, and 1897, edited by James Means, which contained reprints of accounts of various experiments, clear back to the time of Leonardo da Vinci. Besides this list of suggested reading, the Smithsonian sent also some pamphlets, reprints of material extracted from their own annual reports, among which were Mouillard’s Empire of the Air, Langley’s Story of Experiments in Mechanical Flight, and a paper by Lilienthal47 on The Problem of Flying and Practical Experiments in Soaring.

Knowing that the Smithsonian Institution in Washington was interested in the topic of human flight, they decided to send a letter to ask for reading recommendations. The response, received in early June 1899, suggested: Octave Chanute’s Progress in Flying Machines; Professor Langley’s Experiments in Aerodynamics; and the Aeronautical Annuals of 1895, 1896, and 1897, edited by James Means, which included reprints of various experiments dating back to Leonardo da Vinci. Along with this list of suggested reading, the Smithsonian also sent some pamphlets, reprints of material from their own annual reports, including Mouillard’s Empire of the Air, Langley’s Story of Experiments in Mechanical Flight, and a paper by Lilienthal47 on The Problem of Flying and Practical Experiments in Soaring.

This reading material arrived from Washington at a time when Katharine Wright had just returned from Oberlin College, accompanied by a young woman classmate. She had assumed that her brothers would help to entertain this guest, but, to her vexation, Wilbur and Orville had become too absorbed in their reading to have much time for girls.

This reading material arrived from Washington when Katharine Wright had just come back from Oberlin College, along with a young woman classmate. She thought her brothers would help entertain their guest, but, to her frustration, Wilbur and Orville were so engrossed in their reading that they didn't have much time for girls.

It was now evident to the brothers that though the previous ten years had been a period of unusual activity, the results had not been encouraging. Maxim, after spending one hundred thousand dollars, had abandoned his work; the Ader machine, built at the expense of the French government, had been a failure; Lilienthal in Germany, and Pilcher, a marine engineer, in England, had been killed while trying to glide; Octave Chanute, too, after making some experiments in gliding, had quit.

It was now clear to the brothers that although the last ten years had been a time of significant effort, the outcomes were not promising. Maxim, after investing one hundred thousand dollars, had given up on his work; the Ader machine, funded by the French government, had failed; Lilienthal in Germany and Pilcher, a marine engineer in England, had died while attempting to glide; and Octave Chanute, after conducting some gliding experiments, had also stopped.

Since Lilienthal had already aroused the brothers’ admiration, they were especially interested in what he had done. With hundreds of short flights, he had had more flying practice than anyone else, even though he had been in the air a total of only five hours in five years. Lilienthal became the Wrights’ hero. They decided that he, by his experiments, had made more advance in the flying art than had anyone else up to that time—an opinion, it may be added, that they never changed.

Since Lilienthal had already captured the brothers' admiration, they were particularly eager to learn about his accomplishments. With hundreds of short flights under his belt, he had logged more flying practice than anyone else, even though his total time in the air was only five hours over five years. Lilienthal became the Wrights' hero. They concluded that through his experiments, he had made more progress in the field of flight than anyone else up to that point—an opinion, it should be noted, that they maintained throughout their lives.

Their reading now gave the Wrights a good idea of how earlier experimenters had attempted to solve the problem of equilibrium. Some experimenters had placed the center of gravity far below the wings, on the theory48 that the weight would seek to remain at the lowest point. But it had been proved that the wings would then oscillate about the center of gravity in a manner destructive to stability. Others had arranged the wings in the shape of a broad V, to form a dihedral angle, with the center low and the wing tips elevated. This, too, tended to make the machine oscillate from side to side except in calm air. Pénaud, in his models propelled by rubber bands, had used wings that formed a dihedral angle, and a rear stabilizer set with its forward edge lower than the rear edge. This produced inherent stability in both lateral and longitudinal directions. Lilienthal, Chanute, and some of the others had used the Pénaud system in their gliders, but in addition to that system they counted on shifting the weight of their bodies to help maintain equilibrium.

Their reading now gave the Wrights a clear understanding of how earlier experimenters had tried to tackle the issue of balance. Some experimenters had positioned the center of gravity far below the wings, based on the idea that the weight would always come to rest at the lowest point. However, it had been shown that this would cause the wings to wobble around the center of gravity in a way that was harmful to stability. Others had designed the wings in a wide V shape to create a dihedral angle, with the center low and the wing tips raised. This setup also caused the machine to rock from side to side unless there was calm air. Pénaud, with his rubber band-powered models, had implemented wings that formed a dihedral angle and a rear stabilizer with its front edge lower than the back edge. This setup provided inherent stability in both lateral and longitudinal directions. Lilienthal, Chanute, and some others had adopted the Pénaud system in their gliders, but in addition to that, they relied on shifting their body weight to help maintain balance.

All this reading, while adding to their store of knowledge, also gave the Wrights much misinformation. One wrong idea they got was that men already knew how to design wings and propellers of such efficiency that motors then available could easily sustain the machine in the air; another, that the greatest problem was to maintain equilibrium. They also were misled into thinking that fore and aft control of a flying machine would be much more difficult than lateral control.

All this reading, while increasing their knowledge, also filled the Wrights with a lot of misinformation. One misconception they had was that people already knew how to design wings and propellers efficiently enough that the available motors could easily keep the machine in the air; another was that the biggest challenge was maintaining balance. They were also led to believe that controlling the front and back of a flying machine would be much harder than controlling it side to side.

That neither Lilienthal nor any other experimenter had ever tried any more adequate method to insure lateral balance struck Orville as surprising. Why, he asked himself, wouldn’t it be possible for the operator to vary the inclination of sections of the wings at the tips and thus obtain force for restoring balance from49 the difference in the lifts of the two opposite wing tips? That seems today an obvious enough idea, but no one had ever done anything about it before. Orville had hit on a fundamental principle. (Indeed, this principle later became the basic claim of the original Wright patent, and the claim was sustained, as covering the idea of the aileron control, in all countries where the Wright patents were adjudicated.)

That neither Lilienthal nor any other experimenter had ever tried a better method to ensure lateral balance surprised Orville. He wondered why it wouldn’t be possible for the operator to adjust the angle of the wing tips, creating a difference in lift between the two opposing wings to help restore balance. This seems like a pretty obvious idea today, but no one had ever tried it before. Orville had discovered a fundamental principle. (In fact, this principle later became the main claim of the original Wright patent, and the claim was upheld as covering the concept of aileron control in every country where the Wright patents were examined.)

Orville made a rough sketch of a wing, showing a stationary section at the center, consisting of approximately one-third of the wing, measured from tip to tip, with two adjustable sections, one at either side. These sections were carried on shafts interconnected by cogs mounted on the center section and extending toward the wing tips. The movement of a lever attached to one of the shafts would cause one wing section to rotate in one direction while the other wing would turn in the opposite direction. Thus a greater lift could be obtained on whichever side it was needed.

Orville created a rough sketch of a wing, showing a stationary section in the center that made up about one-third of the wing, measured from tip to tip, with two adjustable sections on either side. These sections were mounted on shafts that were linked by cogs attached to the center section and extending toward the wing tips. Moving a lever connected to one of the shafts would cause one wing section to rotate in one direction while the other section would turn in the opposite direction. This way, greater lift could be achieved on whichever side needed it.

The Wrights soon saw, however, that for two reasons this particular design did not provide a good structure for a gliding machine. First, with two-thirds of the entire weight of the machine and operator carried by the two shafts, the structure would be weak; and, second, with the ends of the wings free to turn about the shafts, there would not be enough rigidity for a machine that would have to be toted about.

The Wrights soon realized, however, that for two reasons this particular design wasn’t a good fit for a glider. First, with two-thirds of the total weight of the machine and operator resting on the two shafts, the structure would be weak. Second, with the ends of the wings free to rotate around the shafts, there wouldn’t be enough stability for a machine that needed to be moved around.

Then one night, some five or six weeks later, Wilbur came home from the bicycle shop, to tell Orville enthusiastically of an idea he had hit upon. A customer had dropped in to buy an inner tube for a tire. Wilbur50 had taken the tube from the pasteboard box it came in and was toying with the box while talking to the customer. As he twisted the box he observed that though the vertical sides were rigid endwise, the top and bottom sides could be twisted to have different angles at the opposite ends. Why, he thought, couldn’t the wings of a gliding machine be warped from one end to the other in this same way? Thus the wings could be put at a greater angle at one side than at the other, without structural weakness. That plan seemed so satisfactory that the Wrights did not look for or consider any other method.

Then one night, about five or six weeks later, Wilbur came home from the bike shop, excited to share an idea he had come up with. A customer had stopped by to buy an inner tube for a tire. Wilbur had taken the tube out of the cardboard box it came in and was fiddling with the box while talking to the customer. As he twisted the box, he noticed that while the vertical sides were strong from end to end, the top and bottom sides could be twisted to have different angles at each end. Why, he thought, couldn’t the wings of a gliding machine be warped from one end to the other in the same way? This way, the wings could be angled differently on each side without losing structural integrity. That idea seemed so promising that the Wrights didn’t look for or consider any other approach.

A few weeks later, in August, 1899, the brothers built a biplane kite, and Wilbur, with a group of small boys as spectators, flew it on a common at the edge of town. This kite had wing surfaces five feet from tip to tip by thirteen inches wide. The warping of these surfaces could be accomplished by the use of four cords reaching from the kite to the ground. Two of the cords were attached to the forward corners of the right wing tips, one to the upper and one to the lower; the other ends of the cords, at the ground, were tied to opposite ends of a short stick to be held in the operator’s hand. The cords tied to the left wing were arranged in the same way. With a stick in each hand, the operator could move the wings as he desired. The upper wing could be moved farther forward or farther backward than the lower wing, according to the direction in which the two sticks were simultaneously inclined, by movement of the wrists. By inclining the two sticks in opposite directions it was possible to draw one upper51 wing tip farther forward than the lower at that end, while at the other end of the kite the lower wing tip would be the one farther forward. This moving of the wing tips in opposite directions caused a twisting or warping of the wings. Then the wing at one end would be presented to the wind at a different angle from that at the other end. If one end of the kite started to sink, sidewise balance could be restored by exposing the wing at that end at a greater angle, thus getting more lift.

A few weeks later, in August 1899, the brothers built a biplane kite, and Wilbur, with a group of young boys watching, flew it in a field at the edge of town. This kite had wing surfaces that were five feet from tip to tip and thirteen inches wide. The warping of these surfaces could be done using four cords extending from the kite to the ground. Two of the cords were attached to the front corners of the right wing tips, one to the upper side and one to the lower; the other ends of the cords were tied to opposite ends of a short stick held in the operator's hand. The cords tied to the left wing were set up the same way. With a stick in each hand, the operator could move the wings however he wanted. The upper wing could be moved farther forward or backward than the lower wing, depending on how the two sticks were tilted with wrist movements. By tilting the two sticks in opposite directions, it was possible to draw one upper wing tip farther forward than the lower wing tip at that end, while at the other end of the kite, the lower wing tip would be further forward. This movement of the wing tips in opposite directions caused the wings to twist or warp. As a result, the wing at one end would face the wind at a different angle than the wing at the other end. If one end of the kite started to drop, balance could be restored by tilting the wing at that end at a greater angle, which would generate more lift.

Balance from front to rear was to be maintained by inclining the two sticks in the operator’s hands in the same direction—to move the upper wing either forward or backward over the lower wing, to change the center of lift.

Balance from front to rear was to be maintained by tilting the two sticks in the operator’s hands in the same direction—to move the upper wing either forward or backward over the lower wing, to change the center of lift.

But in addition to this moving of the wings forward and backward, the Wrights added an “elevator” at the rear. It was held by a pair of wooden rods attached at right angles to the uprights that connected the wings. When the upper wing was pulled forward, to turn the kite upward in front, the elevator met the air at its top side and was pressed downward, which helped to turn the wings upward—as the rear elevator does on planes today.

But besides moving the wings forward and backward, the Wrights added an “elevator” at the back. It was supported by a pair of wooden rods attached perpendicularly to the uprights that connected the wings. When the upper wing was pulled forward to lift the kite's front, the elevator met the air on its top side and was pushed down, which helped to tilt the wings upward—similar to how the rear elevator works on planes today.

Though their interest did not lag, the Wrights did nothing more for some time about kite experiments, except to seek information in regard to wind velocity in different parts of the country. They wrote to the Weather Bureau at Washington, in December, 1899, and Willis Moore, chief of that Bureau, sent them a number of government bulletins that included statistics on wind velocities at various places. They looked these52 over, but at that time made no further investigation of any of the places mentioned.

Though they remained interested, the Wrights didn't pursue kite experiments for a while. Instead, they focused on gathering information about wind speeds in different areas of the country. In December 1899, they wrote to the Weather Bureau in Washington, and Willis Moore, the head of that Bureau, sent them several government bulletins that contained statistics on wind speeds at various locations. They reviewed these 52 but did not investigate any of the places mentioned further at that time.

THE FIRST CAMP AT KITTY HAWK. Top: The 1900 camp. Bottom: Kitty Hawk Bay as seen from the 1900 camp.

In May, 1900, Wilbur Wright wrote a letter to Octave Chanute, living in Chicago, who had written Progress in Flying Machines. Though Chanute was better known in engineering circles by his work for certain western railroads, as well as for having built the Kansas City bridge and the Chicago stockyards, his book, a reprint of his articles published from 1891 to 1893, had made him probably the best authority on the history of aeronautics. Thinking Chanute would be interested, Wilbur told him in his letter of a plan he had for experimenting with a man-carrying kite by means of which, Wilbur thought, one would be able to get hours of practice in operating a machine in the air. He proposed the use of a high tower from the top of which a cable would lead to the man-carrying kite. He described to Chanute, in his letter, the system of control to be used in the kite—the warping of wings for lateral control, and the shifting of the upper surface backward and forward for longitudinal control—the same system used in the five-foot kite tested the previous August. Then he asked Chanute if he had any information as to locations where winds suitable for carrying on such experiments might be found. (This letter from Wilbur marked the beginning of an acquaintance and correspondence with Chanute that lasted for a number of years.) Chanute suggested San Diego, California, and St. James City (Pine Island), Florida, to be considered because of the steady sea breezes. But, on the other hand, he pointed out that, since those places were deficient in sand hills, perhaps53 even better locations could be found on the Atlantic coast of South Carolina or Georgia.

In May 1900, Wilbur Wright wrote a letter to Octave Chanute, who lived in Chicago and authored Progress in Flying Machines. Although Chanute was better known in engineering circles for his work with certain western railroads, as well as for building the Kansas City bridge and the Chicago stockyards, his book, a compilation of articles published from 1891 to 1893, had likely made him the leading expert on the history of aeronautics. Believing Chanute would be interested, Wilbur shared in his letter a plan he had to experiment with a man-carrying kite, through which he thought it would be possible to get hours of practice flying a machine in the air. He proposed using a high tower with a cable leading to the man-carrying kite. In his letter, he detailed the control system for the kite—the warping of wings for lateral control, and the shifting of the upper surface back and forth for longitudinal control—the same system he tested in the five-foot kite the previous August. He then asked Chanute if he had any information on locations where suitable winds for such experiments could be found. (This letter from Wilbur marked the beginning of a friendship and correspondence with Chanute that lasted for several years.) Chanute suggested San Diego, California, and St. James City (Pine Island), Florida, as possible options because of the steady sea breezes. However, he also noted that, since those places lacked sand hills, perhaps even better locations could be found along the Atlantic coast of South Carolina or Georgia.

THE 1902 GLIDER. The Wrights are testing the efficiency of the 1902 glider by flying it as a kite—September 19, 1902.

When the rush of the spring trade in bicycles began to subside, giving them more time for other interests, the Wrights again took up with enthusiasm the study of equilibrium. Each day they proposed and discussed new devices. Orville thought the shifting of the upper surface backward and forward over the lower one, for longitudinal equilibrium, though successful in their kite, would not be practical for a man-carrying glider, which would start and land on the ground. He suggested that the wing surfaces be fixed one above the other, and that an elevator be placed some distance in front of the wings, instead of at the rear. In this position there would be less danger of the elevator touching the ground in starting; and if from any cause the elevator were disabled it would be discovered before the machine got into the air. Wilbur then proposed that, since curved surfaces were more efficient than flat planes, the front rudder, or elevator, should be made flexible. Then it could be bent to present a concave surface on whichever side a pressure was desired, but would be flat when moving edgewise through the air.

When the spring rush for bicycle sales started to calm down, giving the Wrights more time for other interests, they enthusiastically returned to studying balance. Every day they suggested and discussed new ideas. Orville believed that shifting the upper surface back and forth over the lower one for balance, while successful in their kite, wouldn't work well for a human-carrying glider that would take off from and land on the ground. He suggested that the wing surfaces be fixed one above the other, with an elevator placed some distance in front of the wings instead of at the back. This way, there would be less risk of the elevator hitting the ground during takeoff, and if the elevator had any issues, they would notice it before the machine got airborne. Wilbur then suggested that, since curved surfaces worked better than flat ones, the front rudder, or elevator, should be flexible. That way, it could be bent to create a concave surface on whichever side needed more pressure, but would be flat when moving sideways through the air.

The Wrights did not at first think an elevator in front would provide inherent stability—that is, it would not give the machine the desired tendency to restore its own balance just from the arrangement of its fixed parts. But Wilbur shortly afterward developed a theory that led him to believe the machine would have that quality.

The Wrights initially didn’t believe that having an elevator in front would ensure stability—that is, it wouldn’t make the machine naturally want to return to balance just based on how its fixed parts were arranged. However, Wilbur soon came up with a theory that made him think the machine would have that quality.

Having read that the center of pressure moves toward the front edge of the wings whenever the wings are54 turned more nearly horizontal in flight, he thought inherent longitudinal stability could be obtained if the front elevator were set at a negative angle—that is, with its front edge lower than its rear edge. With such an arrangement of wings and elevator, every time the wings became more nearly horizontal in flight and met the air at a smaller angle on their under sides, the elevator would meet the air at a greater angle on its upper side. So, he reasoned, whenever, by becoming more nearly horizontal, the wings caused the center of pressure to move forward, tending to turn the machine upward in front, the front elevator would receive a greater downward pressure on its upper side and so counteract the disturbing pressure on the wings.

Having read that the center of pressure shifts toward the front edge of the wings whenever the wings are54 tilted closer to horizontal in flight, he thought that inherent longitudinal stability could be achieved if the front elevator were set at a negative angle—that is, with its front edge lower than its rear edge. With this configuration of wings and elevator, every time the wings became more horizontal in flight and encountered the air at a smaller angle underneath, the elevator would engage the air at a greater angle on its upper side. So, he reasoned, whenever the wings being more horizontal caused the center of pressure to move forward, pushing the front of the machine upward, the front elevator would experience greater downward pressure on its upper side and thus counteract the unsettling pressure on the wings.

Actual tests later proved that the negative angle of the front elevator did not provide the inherent stability expected. The explanation was that the center of pressure on cambered wings traveled in the opposite direction from that which Wilbur’s reading had led him to expect. The Wrights later were to discover that Wilbur’s reasoning was correct; but because the travel of the center of pressure was rearward instead of forward the elevator had to be set at a positive instead of at a negative angle.

Actual tests later showed that the downward angle of the front elevator didn't provide the stability that was expected. The reason was that the center of pressure on curved wings moved in the opposite direction from what Wilbur's calculations suggested. The Wrights would later find out that Wilbur's reasoning was right; however, since the center of pressure moved backward instead of forward, the elevator needed to be set at a positive angle instead of a negative one.

The Wrights’ elevator possessed three features not found in the gliders of any of the earlier experimenters. It was in front of the wings, where it was less liable to damage by striking the ground in take-off and landing; it was operable, instead of fixed as in other machines; and it flexed to present a convex surface to the air, instead of a flat surface. At this early stage of their work55 the Wrights considered this front elevator their most important invention, because, from their reading, they thought it was solving a problem more difficult than that of lateral control.

The Wrights' elevator had three features that earlier experimenters’ gliders didn’t have. It was positioned in front of the wings, making it less likely to get damaged when taking off and landing; it was adjustable instead of being fixed like in other machines; and it curved to create a convex surface for the air rather than a flat one. At this early stage of their work55, the Wrights believed this front elevator was their most significant invention, as they thought it was addressing a problem that was tougher than lateral control.

Though the Wrights’ reasons for placing the elevator in front of the wings were at first those just mentioned, they afterward found that this arrangement had much greater importance for two reasons not at first discovered. One of these was that it eliminated all danger of a nose dive when the plane got into what is known as a “stall”—when the speed became too slow. The other reason was that the elevator in front, set at a positive angle with the pressure on its under side, not only produced inherent stability, but also carried part of the load, and so relieved the wings to that extent. (An elevator in the rear, set at a negative angle to provide inherent stability, carries a pressure on its upper side, which adds just that much to the load the wings must carry.)

Though the Wrights initially chose to place the elevator in front of the wings for the reasons already mentioned, they later realized that this setup was much more significant for two reasons they hadn't discovered at first. One reason was that it eliminated the risk of a nose dive when the plane entered what is called a “stall”—when the speed became too slow. The other reason was that the front-mounted elevator, angled positively with pressure on its underside, not only provided inherent stability but also supported some of the load, relieving the wings to that extent. (An elevator in the rear, angled negatively to ensure inherent stability, experiences pressure on its upper side, which adds to the burden the wings have to carry.)

Around the first of August, 1900, the brothers decided to build a man-carrying glider on which to try out their inventions. To get practice in operating it they would first fly it as a kite. For such kite flying, flat open country would be needed; and for the gliding, sand hills free from trees or shrubs. Once again they examined the reports they had received from the Weather Bureau at Washington. Several of the places where winds might be suitable were in the Far West, but one in the East, much nearer to Dayton, was a place with an odd name, Kitty Hawk, North Carolina. They decided to write at once to Kitty Hawk for further information.

Around the beginning of August 1900, the brothers decided to build a glider that could carry a person to test out their inventions. To practice flying it, they would first use it as a kite. They needed flat, open land for kite flying, and sandy hills without trees or shrubs for gliding. They once again reviewed the reports from the Weather Bureau in Washington. Some of the places with suitable winds were in the Far West, but there was one on the East Coast, much closer to Dayton, with an unusual name: Kitty Hawk, North Carolina. They decided to write immediately to Kitty Hawk for more information.

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Wilbur Wright addressed a letter to the chief of the Kitty Hawk weather bureau station, asking for various details about the locality, explaining that he might wish to go there shortly to conduct experiments with a man-carrying kite. He inquired, too, if it would be possible for him and his brother to obtain board and lodging in the vicinity until they could get themselves established in a camp.

Wilbur Wright wrote a letter to the head of the Kitty Hawk weather bureau station, asking for details about the area, explaining that he might want to go there soon to conduct experiments with a man-carrying kite. He also asked if it would be possible for him and his brother to find food and a place to stay nearby until they could set up their camp.

Joseph J. Dosher, in charge of the Kitty Hawk station, who received the letter, replied briefly, on August 16, giving the direction of the prevailing winds; and he described the nature of the land for many miles.

Joseph J. Dosher, who was in charge of the Kitty Hawk station, received the letter and responded briefly on August 16, providing information about the direction of the prevailing winds and describing the terrain for many miles.

After writing his reply, Dosher handed Wilbur Wright’s letter to a neighbor, William J. Tate, with the request that he also make a reply. “Bill” Tate (later known as Captain Tate) was probably the best-educated man in that locality. He lived about a mile inland from the weather station, in the hamlet or settlement of Kitty Hawk, where he had formerly been the postmaster. For all practical purposes he still was the postmaster, though the office was in his wife’s name. Endowed with a gift for expressing himself readily in either speech or writing, Tate did a creditable job when he wrote to Wilbur Wright on August 18. Not only did he tell about the suitability of the Kitty Hawk region, because of the prevailing high winds, for the kind of experiments Wilbur had mentioned, but he went into details about the treeless sand hills and the general terrain. And he said arrangements could undoubtedly be made for the Wrights to obtain board for as long as desired.

After writing his response, Dosher gave Wilbur Wright’s letter to a neighbor, William J. Tate, asking him to reply as well. “Bill” Tate (later known as Captain Tate) was probably the most educated person in the area. He lived about a mile inland from the weather station, in the settlement of Kitty Hawk, where he had previously been the postmaster. For all intents and purposes, he still acted as the postmaster, even though the office was officially in his wife’s name. Gifted in expressing himself easily in both speech and writing, Tate did a great job when he wrote to Wilbur Wright on August 18. He not only mentioned how the Kitty Hawk region was suitable for the type of experiments Wilbur had described due to the strong winds but also provided details about the treeless sand hills and the overall terrain. He indicated that arrangements could likely be made for the Wrights to get accommodation for as long as they needed.

The letters from Dosher and Tate—particularly the57 one from Tate—convinced the Wrights that Kitty Hawk was the place for their experiments. Almost immediately they decided they would go to Kitty Hawk as soon as they could build their glider.

The letters from Dosher and Tate—especially the one from Tate—persuaded the Wrights that Kitty Hawk was the right spot for their experiments. They quickly decided they would head to Kitty Hawk as soon as they finished building their glider.

The work at Dayton, getting parts and material ready for the glider, required only a few weeks. Only the cutting and sewing of the cloth covering for the wings, the bending of the ash ribs into shape, and making the metal connections, took much time. The cost of the whole machine in actual money outlay was trifling, probably not more than $15.

The work at Dayton, preparing parts and materials for the glider, took just a few weeks. Only the cutting and stitching of the cloth covering for the wings, shaping the ash ribs, and creating the metal connections took a significant amount of time. The total cost of the whole machine in actual cash spent was minimal, probably not more than $15.

It was arranged that Orville should stay in Dayton, to look after the bicycle shop until Wilbur got settled at Kitty Hawk, and then join him there.

It was decided that Orville would stay in Dayton to manage the bicycle shop until Wilbur got settled in Kitty Hawk and then join him there.

Wilbur set out on a September day, taking with him parts of the glider and all material needed to assemble it except some spruce lumber he expected to obtain nearer his destination.

Wilbur set out on a September day, taking with him parts of the glider and all the materials needed to put it together except for some spruce lumber he planned to get closer to his destination.

The journey proved to be more of an undertaking than Wilbur expected.

The journey turned out to be more challenging than Wilbur anticipated.


One must look at a map of North Carolina to get an idea of the isolation of the long strip of sandy beach that separates the Atlantic Ocean from Albemarle, Pamlico, and Roanoke Sounds. At the time the Wrights went there, no bridges connected this beach with any part of the North Carolina mainland or even with near-by Roanoke Island, seat of Sir Walter Raleigh’s “Lost Colony.” At one point on the beach was the Kitty Hawk life-saving station, and alongside of it a government weather bureau. About a mile back from the ocean was the hamlet of Kitty Hawk which, though it had a post office, was little more than a settlement, with only about a score of dwelling houses, most of them as widely scattered as in an ordinary farming community. Four miles south was the Kill Devil life-saving station.

One needs to look at a map of North Carolina to understand how isolated the long stretch of sandy beach is that separates the Atlantic Ocean from Albemarle, Pamlico, and Roanoke Sounds. When the Wrights visited, there were no bridges connecting this beach to any part of the North Carolina mainland or even nearby Roanoke Island, home of Sir Walter Raleigh’s “Lost Colony.” At one point on the beach was the Kitty Hawk life-saving station, and next to it was a government weather bureau. About a mile from the ocean was the village of Kitty Hawk, which, despite having a post office, was little more than a settlement, with only about twenty houses, most of them as spaced out as in a typical farming community. Four miles south was the Kill Devil life-saving station.

It was not surprising that when Wilbur Wright, on September 9, 1900, reached Elizabeth City, North Carolina, the nearest railroad point to his destination, the first persons he chanced to ask about Kitty Hawk had never heard of the place. Then he learned that a boat made weekly trips to Roanoke Island; but it had gone the day before. Not liking delay, he went to the water front to inquire if another boat might be available. There he met one Israel Perry, formerly a resident of Kitty Hawk,59 who lived the year round on his little flat-bottomed schooner. As no other boatman showed any interest in making the trip, Wilbur booked passage with “Captain” Perry, despite the boat’s dirty, forbidding appearance. After loading parts of the glider and other goods that had been shipped from Dayton, he set out with Perry on the morning of September 10 for the forty-mile voyage to Kitty Hawk. Wilbur noticed that the small boat they used to go from the wharf out to where the schooner was anchored was leaking badly and he asked if it was safe.

It wasn’t surprising that when Wilbur Wright arrived in Elizabeth City, North Carolina, on September 9, 1900, which was the closest train station to his destination, the first people he asked about Kitty Hawk had never heard of it. He then found out that a boat traveled weekly to Roanoke Island, but it had left the day before. Not wanting to wait, he went to the waterfront to see if another boat might be available. There, he met Israel Perry, a former resident of Kitty Hawk, who lived year-round on his little flat-bottomed schooner. Since no other boatman showed any interest in making the trip, Wilbur booked passage with “Captain” Perry, despite the boat’s dirty and unwelcoming look. After loading parts of the glider and other supplies that had been shipped from Dayton, he set out with Perry on the morning of September 10 for the forty-mile journey to Kitty Hawk. Wilbur noticed that the small boat they used to get from the wharf to where the schooner was anchored was leaking badly, and he asked if it was safe.

“Oh,” Perry assured him, “it’s safer than the big boat.” That didn’t inspire too much confidence in what was in store, and Wilbur soon learned that any misgivings he felt were amply justified. Toward the middle of the afternoon they met a strong head wind that forced them to seek a smooth water haven in North River where they anchored to await better weather. By that time Wilbur had worked up a good appetite; but he discovered that neither the food nor the kitchen met even minimum standards of cleanliness and he made excuses, as politely as he could, for not eating. All he had with him against hunger was a small jar of jelly his sister Katharine had slipped into his suitcase.

“Oh,” Perry reassured him, “it’s safer than the big boat.” That didn’t boost his confidence about what was coming, and Wilbur quickly realized that any worries he had were completely justified. In the middle of the afternoon, they hit a strong headwind that forced them to find a calm spot in North River, where they anchored and waited for better weather. By then, Wilbur had built up quite an appetite; however, he found that neither the food nor the kitchen met even the minimum standards of cleanliness, so he made excuses, as politely as he could, for not eating. The only thing he had to stave off hunger was a small jar of jelly his sister Katharine had packed into his suitcase.

The weather was not favorable for continuing the voyage until the afternoon of the second day, and the boat reached a wharf, where there was a small store, on Kitty Hawk bay, at about nine o’clock that night. Not knowing where else to go, Wilbur stayed aboard until the next morning. A small boy named Baum agreed to guide him to the home of William J. Tate, about a quarter60 of a mile away. By the time Wilbur arrived there, on that morning of September 12, it was just forty-eight hours since he had tasted food other than his little supply of jelly.

The weather wasn't good for continuing the journey until the afternoon of the second day, and the boat docked at a wharf with a small store on Kitty Hawk Bay around nine o’clock that night. Not sure where else to go, Wilbur stayed on the boat until the next morning. A young boy named Baum offered to show him the way to the home of William J. Tate, about a quarter60 of a mile away. By the time Wilbur got there, on the morning of September 12, it had been exactly forty-eight hours since he had eaten anything besides his small stash of jelly.

After introducing himself, and in response to “Bill” Tate’s inquiries about how he enjoyed his trip, Wilbur spoke of his back being sore from lying on deck and of how his arm ached from holding on when the boat rolled. Then it came out that he had been unable to bring himself to eat the food provided on the Perry schooner.

After introducing himself, and in response to “Bill” Tate’s questions about how he enjoyed his trip, Wilbur mentioned that his back was sore from lying on the deck and his arm ached from gripping on when the boat rolled. Then he admitted that he couldn't bring himself to eat the food offered on the Perry schooner.

“You mean to tell me,” asked “Bill” Tate, greatly concerned, “that you’ve eaten no victuals for two days?”

"You’re telling me," asked "Bill" Tate, really worried, "that you haven’t eaten anything for two days?"

Here was a situation that called for quick action in a hospitable home. It was after the Tates’ breakfast hour, but Mrs. Tate soon had a fire in the kitchen stove and prepared a great platter of ham and eggs that the guest seemed to relish.

Here was a situation that needed quick action in a welcoming home. It was after the Tates’ breakfast time, but Mrs. Tate quickly lit a fire in the kitchen stove and prepared a large platter of ham and eggs that the guest seemed to enjoy.

Then Wilbur inquired if it would be possible for him to obtain board and lodging there for the week or more until his brother “Orv” arrived.

Then Wilbur asked if he could get a place to stay and meals there for a week or so until his brother “Orv” showed up.

Tate went into an adjoining room to ask his wife. As the door was ajar, Wilbur could hear what was said. Mrs. Tate was a bit alarmed. Here was a man able to devote time and money for weeks at a time to sport. Doubtless he must be a person of great wealth, accustomed to every luxury. Would he be satisfied with the best they could offer?

Tate walked into the next room to ask his wife. Since the door was slightly open, Wilbur could hear the conversation. Mrs. Tate sounded a little worried. Here was a man who could spend time and money on sports for weeks at a time. He must be someone really wealthy, used to every luxury. Would he be happy with the best they could provide?

Wilbur stepped to the door, explaining that he could not help overhearing their conversation, and said it must61 be understood that if he were accepted as a paying guest he would not expect any extra frills, but would greatly appreciate the courtesy.

Wilbur moved to the door and mentioned that he couldn't help but overhear their conversation. He added that if he was accepted as a paying guest, he wouldn't expect any extra perks, but would really appreciate the courtesy.

“This fellow’s a real gentleman,” thought Tate, and by way of settling the question, without waiting to hear any more from his wife, he said to Wilbur:

“This guy’s a true gentleman,” thought Tate, and to settle the matter, without waiting to hear any more from his wife, he said to Wilbur:

“You must be tired. Why don’t you come into our spare bedroom and take a nap?”

“You must be tired. Why don’t you come into our guest room and take a nap?”

By the next day Wilbur was at work. The cloth covering for the glider—white French sateen of extra good quality—had already been shaped and sewed at Dayton, except at the ends, to permit fitting it over the framework. But now he had to make changes in the covering, because the glider was going to be smaller than originally planned. The longest timbers, for the wing spars, that he had been able to find in either Norfolk or Elizabeth City were only sixteen feet long instead of the eighteen-foot length he desired. Thus it was necessary to cut out strips from the middle of the lengths of cloth for both upper and lower wings. For resewing the cloth where necessary, Wilbur borrowed Mrs. Tate’s machine. But all the rest of the work of assembling the glider was done at a tent Wilbur set up, about half a mile from the Tate home, at a spot where there were a few trees and a view of the bay. He dragged the crates, containing various parts and tools, to the tent and hoped to have everything in readiness when Orville arrived. But the heat was intense, the job of carrying water to the camp used up much energy, and when Orville got there, on September 28, Wilbur told him regretfully that much work on the glider was still to be done.

By the next day, Wilbur was hard at work. The cloth covering for the glider—high-quality white French sateen—had already been cut and sewn in Dayton, except at the ends, to allow it to fit over the frame. Now he had to adjust the covering because the glider was going to be smaller than originally planned. The longest pieces of wood he could find for the wing spars in either Norfolk or Elizabeth City were only sixteen feet long, instead of the eighteen feet he wanted. So, he needed to cut strips from the middle of the cloth for both the upper and lower wings. To resew the cloth where necessary, Wilbur borrowed Mrs. Tate’s sewing machine. But all the rest of the assembly work for the glider was done at a tent that Wilbur set up about half a mile from the Tate home, in an area with a few trees and a view of the bay. He carried the crates, which held various parts and tools, to the tent and hoped to have everything ready when Orville arrived. However, the heat was intense, hauling water to the camp took up a lot of energy, and when Orville got there on September 28, Wilbur sadly told him that there was still a lot of work left to do on the glider.

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Orville’s trip had been uneventful. Indeed, though he came on a better boat than Israel Perry’s, he had struck such a calm sea that his voyage from Elizabeth City took two days, the same as Wilbur’s. For the first five days after Orville’s arrival, both brothers stayed at the Tate home. Then they established themselves in camp. One end of their tent, twelve by twenty-two feet, was tied to a tree for anchorage. The tree was headquarters for a mocking bird that sometimes joined in the harmony when Orville twanged at a mandolin he had brought from home.

Orville’s trip had been pretty uneventful. Even though he arrived on a better boat than Israel Perry’s, the sea was so calm that it took him two days to get to Elizabeth City, just like Wilbur. For the first five days after Orville arrived, both brothers stayed at the Tate home. Then they set up camp. One end of their tent, which was twelve by twenty-two feet, was tied to a tree for stability. The tree also served as the headquarters for a mockingbird that sometimes added its voice to the music when Orville strummed a mandolin he had brought from home.

Not many visitors came to the camp from near-by Kitty Hawk. One reason for this was that the camp was considered dangerous after news got about that the Wrights used a gasoline stove. “Bill” Tate was favorably impressed, though, with an acetylene lamp, intended for a bicycle, that the Wrights used for lighting. He said he had a notion to install such a system of gas lighting in his house.

Not many visitors came to the camp from nearby Kitty Hawk. One reason for this was that the camp was seen as dangerous after word spread that the Wrights used a gasoline stove. "Bill" Tate was impressed, however, with an acetylene lamp, meant for a bicycle, that the Wrights used for lighting. He mentioned that he was thinking about installing a gas lighting system like that in his house.

It was necessary to carry water about one thousand feet over the sand. Orville volunteered to do the cooking—and he continued to do so during all their experiments at Kitty Hawk. But he always felt that he had the better of the bargain, for the dish-washing job was Wilbur’s. As it was impossible to obtain fresh bread, Orville learned to make biscuits, and without use of milk. They were good biscuits, too—better, his father afterward insisted, than anyone else could make. To simplify operations, Orville always mixed at one time enough flour and other dry ingredients to last for several days, as biscuits had to be baked three times daily.

It was needed to carry water about one thousand feet over the sand. Orville offered to handle the cooking—and he kept doing it throughout all their experiments at Kitty Hawk. But he always felt he got the better end of the deal since the dishwashing was Wilbur’s responsibility. Since they couldn't get fresh bread, Orville learned to make biscuits, and he did it without using milk. They were really good biscuits, too—better, his father later insisted, than anyone else could make. To streamline the process, Orville always mixed enough flour and other dry ingredients at once to last several days, as biscuits had to be baked three times a day.

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Working together, the brothers soon had the glider assembled. When completed it weighed about fifty-two pounds. Though the main spars were only sixteen feet long, the “bows” at the ends of each wing surface brought the total span to nearly seventeen and one-half feet. The total lifting area was 165 square feet instead of 200 as intended. A space eighteen inches wide at the center of the lower surface where the operator would lie, with feet over the rear spar, was left free of covering. The apparatus had no rear vanes or tail of any kind; but it had two important features never used by previous experimenters. One was the front rudder, or “elevator,” the rear edge of which was about thirty inches from the nearest edge of the wings; the other was the wing warping. By an ingenious arrangement of the trussing, the wings could be twisted into a helicoidal warp from one end to the other, thus exposing one wing to the air at a greater angle than the other. This was to be used for bringing the machine back to the level after it was tipped up sidewise by a gust of wind.

Working together, the brothers quickly put the glider together. When it was done, it weighed about fifty-two pounds. Although the main spars were just sixteen feet long, the "bows" at the ends of each wing surface extended the total span to almost seventeen and a half feet. The total lifting area was 165 square feet instead of the intended 200. They left an eighteen-inch wide space in the center of the lower surface where the operator would lie, with their feet over the rear spar, uncovered. The apparatus didn’t have any rear vanes or tail; however, it included two key features that previous experimenters had never used. One was the front rudder, or “elevator,” whose rear edge was about thirty inches from the closest edge of the wings; the other was wing warping. With a clever arrangement of the trussing, the wings could be twisted into a spiral warp from one end to the other, allowing one wing to catch more airflow at a steeper angle than the other. This was designed to help stabilize the machine after it was tilted sideways by a gust of wind.

The Wrights’ first surprise at Kitty Hawk was that the winds there were not what they had counted on. United States Weather Bureau reports had led them to think they would have winds of about fifteen miles an hour almost every day. But now it dawned on them that fifteen miles an hour was simply the daily average for a month. Sometimes the wind was sixty miles an hour, and the next day it would be entirely calm. It now began to look as if they might frequently have to wait a few days for suitable conditions, which meant that their experiments64 would require more time than they had expected.

The Wrights’ first surprise at Kitty Hawk was that the winds there were different from what they had anticipated. Reports from the United States Weather Bureau had led them to believe they would have winds of about fifteen miles per hour almost every day. But they soon realized that fifteen miles per hour was just the daily average for a month. Sometimes the wind reached sixty miles per hour, and the next day it would be completely still. It started to look like they might often have to wait a few days for the right conditions, which meant their experiments64 would take longer than they had expected.

Almost as soon as they began their trials of the glider, the brothers got another surprise. According to the Lilienthal tables of air pressures, their machine of 165 square feet needed a wind of only from seventeen to twenty-one miles an hour to support it as a kite with a pilot aboard. But they found that much stronger winds were needed to lift it. Since suitable winds would not be plentiful, their plan of practicing by the hour aboard the glider while flying it as a kite would have to be postponed. Instead, they flew it as a kite, loaded with about fifty pounds of chain, but with no man aboard. They held it with two ropes, and operated the balancing system by cords from the ground. Though the results were promising, inspiring confidence in the system of maintaining equilibrium, the brothers knew that only by actual gliding experience could they confirm what the kite experiments had indicated as being true.

Almost as soon as they started testing the glider, the brothers got another surprise. According to the Lilienthal tables of air pressures, their machine with 165 square feet needed wind speeds of only 17 to 21 miles per hour to function as a kite with a pilot on board. However, they discovered that much stronger winds were necessary to lift it. Since suitable winds would not be easy to come by, their plan to practice for hours on the glider while flying it as a kite would have to be delayed. Instead, they flew it as a kite, loaded with about 50 pounds of chain, but with no one on board. They secured it with two ropes and controlled the balancing system using cords from the ground. While the results were promising and inspired confidence in the equilibrium maintenance system, the brothers understood that only through actual gliding experience could they verify what the kite experiments had suggested was true.

One thing that puzzled them was that the machine appeared to be greatly deficient in lifting power as compared with calculated lift of curved surfaces of its size. In wondering what might be the cause of this wide discrepancy between expected and actual lifts, the Wrights considered the possibility that it might be because the curvature of the wings was less than that used by Lilienthal. Or could it be that the cloth covering was too porous and permitted some of the lifting power of the wind to be lost? They wondered, too, if the Lilienthal tables they had followed, relating to air pressure on wing surfaces, could be in error.

One thing that confused them was that the machine seemed to have significantly less lifting power compared to the calculated lift of curved surfaces of its size. While trying to figure out the reason for this big difference between expected and actual lifts, the Wrights thought about whether it could be because the curvature of the wings was less than what Lilienthal used. Or maybe the cloth covering was too porous and allowed some of the wind's lifting power to be wasted? They also questioned if the Lilienthal tables they had used, which related to air pressure on wing surfaces, might be incorrect.

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They next determined to try gliding on the side of a hill. That meant toting their machine four miles south of their camp to a great sand dune about one hundred feet high, called Kill Devil Hill. On their first day at the hill, the wind was about twenty-five miles an hour. As they lacked previous experience at gliding they decided to wait for less of a blow for their first attempt. The next day the wind had subsided to fourteen miles an hour, and they made about a dozen glides. “Bill” Tate was there and assisted them.

They then decided to try gliding down the side of a hill. This meant carrying their machine four miles south of their camp to a large sand dune about one hundred feet high, known as Kill Devil Hill. On their first day at the hill, the wind was around twenty-five miles an hour. Since they had no prior experience with gliding, they chose to wait for calmer conditions for their first attempt. The next day, the wind had died down to fourteen miles an hour, and they managed about a dozen glides. “Bill” Tate was there to help them.

In making these glides, the machine was usually only two or three feet from the soft, sandy ground, and though the brothers repeatedly made landings while moving at a speed of twenty miles an hour, neither operator nor machine was harmed. The slope of the hill toward the northeast was about 9½ degrees, or a drop of approximately one foot in six. After moving at a rate of about twenty-five to thirty miles an hour with reference to the wind, or ten to fifteen miles over the ground, the machine, while keeping its course parallel to the slope, increased its speed, thus indicating that it could glide on a slope less steep.

In making these glides, the machine was usually just two or three feet above the soft, sandy ground, and even though the brothers consistently landed while traveling at twenty miles an hour, neither the operator nor the machine was injured. The hill slope toward the northeast was about 9½ degrees, or a drop of roughly one foot for every six feet. After moving at around twenty-five to thirty miles an hour relative to the wind, or ten to fifteen miles over the ground, the machine, while maintaining its course parallel to the slope, gained speed, showing that it could glide on a less steep slope.

Their control of the machine was even better than they had dared to expect. They got quick response to the slightest movement of the front elevator, which promised to be satisfactory in maintaining fore and aft balance. At first, they fastened the warping mechanism, to make it inoperable, and had only the elevator to manipulate, for they feared that, inexperienced as they were, if they tried to use both, then they might be unsuccessful with either. But even without the use of the66 warping mechanism it was possible to make glides of from five to ten seconds before the sidewise tilt of the machine forced a landing. Before making the last three or four flights the Wrights loosened the warping wires to permit the sidewise control to be used.

Their control of the machine was even better than they had hoped. They received quick responses to the slightest movements of the front elevator, which promised good maintenance of balance. At first, they secured the warping mechanism to make it inoperable and only used the elevator for adjustments because they feared that, as inexperienced as they were, trying to use both might lead to failure with either. But even without the warping mechanism, they could achieve glides lasting five to ten seconds before the sideways tilt of the machine forced a landing. Before making the last three or four flights, the Wrights loosened the warping wires to allow for sideways control.

When these experiments of 1900 ended, instead of the hours of practice in the air the Wrights had hoped to have, they had flown the machine as a kite with a man aboard barely ten minutes, and had had only two minutes of actual gliding.

When these experiments of 1900 wrapped up, instead of the hours of flight practice the Wrights had hoped for, they had only flown the machine as a kite with a person on board for just under ten minutes, and had only two minutes of actual gliding.

Now that the experiments for that year were ended and they had no further use for the glider, the brothers weighted the machine with sand and left it on the hill. When “Bill” Tate saw that they were through with the glider he asked if he might have it, and they gladly gave it to him. Mrs. Tate used the sateen that covered the wings to make dresses for her two small daughters. She noted that it appeared to be unusually good fabric, more closely woven and better than she had seen in the stores. Some of her neighbors, when they saw the dresses she made of it, remarked that it seemed too bad to use such excellent material on a kite.

Now that the experiments for that year were over and they had no further use for the glider, the brothers loaded the machine with sand and left it on the hill. When “Bill” Tate saw that they were done with the glider, he asked if he could have it, and they happily gave it to him. Mrs. Tate used the fabric that covered the wings to make dresses for her two young daughters. She noticed that it seemed to be really good quality material, more tightly woven and better than what she had found in stores. Some of her neighbors, when they saw the dresses she made from it, remarked that it seemed a shame to use such excellent material on a kite.

Though the amount of practice was less than they had expected, all the Wrights had learned in that season of 1900 seemed to confirm the correctness of certain opinions held at the beginning. Their method of warping or twisting the wings to maintain lateral balance was better than dependence on either the dihedral angle or shifting the weight of the operator; better than any method yet tried. And their front elevator had been highly satisfactory as a means for directing the machine67 up and down. Before leaving Kitty Hawk they decided that their next experiments would be with a glider large enough to be flown as a kite, with an operator aboard, in winds ordinarily to be counted on.

Though they practiced less than they expected, all the Wrights had learned that season in 1900 seemed to confirm the correctness of certain beliefs they had at the start. Their method of warping or twisting the wings to keep lateral balance was better than relying on either the dihedral angle or shifting the operator's weight; it was better than any method they had tried before. Plus, their front elevator was very effective for directing the machine67 up and down. Before leaving Kitty Hawk, they decided their next experiments would involve a glider large enough to be flown as a kite, with an operator on board, in winds they could usually count on.

When the brothers set to work on their glider for the experiments of 1901, they decided to make it of the same general design as the first one, and with the same system of control. But they carried out their plan to give it considerably more area, to provide greater lifting power. Another change they made was to increase the curvature of the wings to conform to the shape on which Lilienthal had based his tables of air pressures. It had wings of about seven-foot chord (the straight line distance between the front and rear edges) with a total span of twenty-two feet, and weighed ninety-eight pounds. After a section twenty inches wide had been removed from the middle of the lower wing, and the rear corners of the wings rounded off, the total lifting area was 290 square feet, as compared with 165 in the previous glider. The front elevator, with its rear edge about two and one half feet away from the front edge of the wings, had a four-and-one-half foot chord and an area of eighteen square feet.

When the brothers started working on their glider for the 1901 experiments, they decided to stick to the same general design as the first one, using the same control system. However, they planned to make it significantly larger to enhance its lifting power. Another adjustment they made was to increase the curvature of the wings to match the shape that Lilienthal used in his air pressure tables. It had wings with a chord of about seven feet (the straight line distance between the front and rear edges), a total wingspan of twenty-two feet, and it weighed ninety-eight pounds. After removing a twenty-inch-wide section from the middle of the lower wing and rounding off the rear corners of the wings, the total lifting area increased to 290 square feet, compared to 165 in the previous glider. The front elevator, positioned about two and a half feet back from the front edge of the wings, had a chord of four and a half feet and an area of eighteen square feet.

This was a much larger machine than anyone had ever tried to fly. The Wrights knew it could not be controlled simply by shifting the pilot’s weight, as others had done, but they had faith in their own operable front elevator and believed they could manage it. If their calculations were correct, it would be supported in a wind of seventeen miles an hour, with the wing surfaces at an “angle of incidence” of only three degrees. (“Angle68 of incidence,” now more often called “angle of attack,” has been defined as the angle at which the plane presents itself to the air in advancing against it.)

This was a much larger machine than anyone had ever tried to fly. The Wrights knew it couldn’t be controlled just by shifting the pilot’s weight, like others had done, but they believed in their own working front elevator and thought they could handle it. If their calculations were right, it would be supported in a wind of seventeen miles an hour, with the wing surfaces at an “angle of incidence” of only three degrees. (“Angle68 of incidence,” now more commonly called “angle of attack,” refers to the angle at which the plane presents itself to the air while moving against it.)

As it would be impractical to keep so large a machine with them in the tent, as they had done with the smaller glider, the brothers built near Kill Devil Hill a rough frame shed, twenty-five feet long, sixteen feet wide, and seven feet high at the eaves. Both ends of the building except the gable parts were made into doors, hinged above. When open, the doors provided an awning at each end of the building. For living quarters they still used a tent. By driving a pipe ten or twelve feet into the sand they got a water supply.

Since it was impractical to keep such a large machine with them in the tent, like they did with the smaller glider, the brothers built a rough frame shed near Kill Devil Hill that was twenty-five feet long, sixteen feet wide, and seven feet high at the eaves. Both ends of the building, except for the gable parts, were made into doors that were hinged at the top. When open, the doors created an awning at each end of the building. They continued to use a tent for living quarters. By driving a pipe ten or twelve feet into the sand, they managed to get a water supply.

Though the great stretch of sandy waste seemed too desolate for anyone to bother about owning, yet it was all under the ownership of one person or another and the Wrights took the precaution to obtain permission to erect their buildings.

Though the vast expanse of sandy wasteland appeared too bleak for anyone to care about owning, it was all actually owned by someone. The Wrights made sure to get permission to build their structures.

This year they were to have company in camp. Octave Chanute, with whom they had been in correspondence for about a year, stopped in Dayton in June, 1901, at their invitation, to get better acquainted. When he learned that the Wrights had carried on their experiments in 1900 without the presence of a doctor in camp, and were intending to do so again, he told them he thought that was too risky, considering the kind of work and the isolation of the experiment ground. He said he knew a young man in Coatesville, Pennsylvania, George A. Spratt, “an amateur” in aeronautics, who had had some medical training. Spratt had never seen any gliding experiments, and Chanute thought he would69 be eager for the opportunity. If the Wrights would board him at camp, Chanute said, he would be glad to pay Spratt’s traveling expenses to Kitty Hawk and would consider himself “compensated by the pleasure given to him.” Chanute also proposed that they have in camp with them E. C. Huffaker, of Chuckey City, Tennessee, who was building a glider that Chanute was financing, and the Wrights consented. Thus there were four regularly in camp that season, and for a time Chanute himself was with them as a guest.

This year, they were going to have company at the camp. Octave Chanute, whom they had been corresponding with for about a year, stopped in Dayton in June 1901, at their invitation, to get to know them better. When he found out that the Wrights had conducted their experiments in 1900 without a doctor present in camp and planned to do so again, he expressed that he thought it was too risky because of the nature of the work and the isolation of the testing ground. He mentioned a young man in Coatesville, Pennsylvania, named George A. Spratt, “an amateur” in aeronautics, who had some medical training. Spratt had never witnessed any gliding experiments, and Chanute believed he would be eager for the opportunity. If the Wrights would provide him with room and board at the camp, Chanute said he would be happy to cover Spratt’s travel expenses to Kitty Hawk and would consider himself “compensated by the pleasure given to him.” Chanute also suggested that they invite E. C. Huffaker from Chuckey City, Tennessee, who was working on a glider that Chanute was funding, and the Wrights agreed. So, there were four people regularly in camp that season, and for a time, Chanute himself was with them as a guest.

The new machine was completed and ready for trial on the afternoon of July 27. Since it was designed to be flown in a wind of seventeen miles, and there was but thirteen miles of wind on that day, the brothers took the machine to the big Kill Devil Hill for its first trial. After five or six short tuning-up flights they made a glide of 315 feet in nineteen seconds. Although several flights on this first day of experiments in 1901 exceeded the best made the year before, yet it was soon evident that in several respects the machine was not as good as the first one. It was found that the wings, with a camber of one to twelve—the camber recommended by Lilienthal, and used by Chanute and others—was not so good as the camber of one to twenty-two, used by the Wrights in 1900. (Camber of one to twenty-two means that the length of the chord, the straight-line distance between the front and rear edges of the wings, is twenty-two times the distance from the chord to the deepest part of the wing curve.) This was demonstrated by the fact that the 1901 machine could not glide on a slope as nearly level as had the earlier machine. The70 Wrights found, too, that a machine with wings of one to twelve camber was not so easily controlled fore and aft as when the wings were of one to twenty-two camber. They decided therefore to reduce the camber of the wings to make them more like those of the earlier machine. When they resumed their gliding, after the camber had been reduced (one to eighteen), the control of the machine appeared to be as good as it was the year before, and they then made flights in winds of twenty-two to twenty-seven miles an hour, without accident. Though in most of these flights the lateral control was highly effective, in a few others—under conditions seemingly the same—the wing warping appeared to have no effect at all.

The new machine was finished and ready for testing on the afternoon of July 27. Since it was designed to be flown in a wind of seventeen miles per hour, and there was only thirteen miles of wind that day, the brothers took the machine to the large Kill Devil Hill for its first trial. After five or six short tuning flights, they achieved a glide of 315 feet in nineteen seconds. Although several flights on this first day of experiments in 1901 surpassed the best made the previous year, it quickly became clear that, in several ways, the machine was not as good as the first one. They discovered that the wings, with a camber of one to twelve—the camber recommended by Lilienthal and used by Chanute and others—was not as effective as the one to twenty-two camber used by the Wrights in 1900. (A camber of one to twenty-two means that the length of the chord, the straight-line distance between the front and rear edges of the wings, is twenty-two times the distance from the chord to the deepest part of the wing curve.) This was proven by the fact that the 1901 machine could not glide on a slope as nearly level as the earlier machine. The Wrights also found that a machine with wings of one to twelve camber was not as easily controlled front to back as when the wings were of one to twenty-two camber. They decided to reduce the camber of the wings to make them more like those of the earlier machine. When they resumed their gliding after reducing the camber (to one to eighteen), the control of the machine seemed to be just as good as the year before, and they then made flights in winds of twenty-two to twenty-seven miles per hour without incident. While in most of these flights the lateral control was very effective, in a few others—under seemingly the same conditions—the wing warping seemed to have no effect at all.

The Wrights now made the discovery that in free flight, when the wing on one side of the machine was presented to the wind at a greater angle than that on the other side, the wing with the greater angle, instead of rising as it was expected to do, sometimes descended. The explanation was that the greater angle of the wing at one side gave more resistance to forward motion and thus reduced the speed on that side. This decrease in speed more than counter-balanced the effect of the larger angle of the wing in producing lift. (The Wrights had not discovered this when flying the glider as a kite, because, when held by ropes, the wings always maintained equal air speeds, even when their resistances were unbalanced.)

The Wrights discovered that during free flight, when one wing of the aircraft faced the wind at a steeper angle than the other, the wing at the steeper angle didn’t always rise as expected; sometimes it actually dropped. The reason for this was that the increased angle of the wing on one side created more drag, which slowed down that side. This reduction in speed outweighed the benefit of the increased angle of the wing in generating lift. (The Wrights didn’t realize this when they flew the glider as a kite because, when tethered by ropes, the wings always had equal air speeds, even when their drag was unbalanced.)

It was evident to the brothers that their present method of controlling equilibrium was not yet complete. Something was needed to maintain equal speeds at the71 two wing tips. The idea occurred to them that the addition of a vertical fin attached to the machine at some distance in the rear of the wings might be the solution of the problem. But the test of such a fin had to be left until another season.

It was clear to the brothers that their current way of balancing things wasn't fully developed yet. They needed something to keep the speeds equal at the71 two wing tips. They had the idea that adding a vertical fin attached to the machine at a distance behind the wings could solve the issue. However, testing that fin would have to wait until next season.

The behavior of the glider in these various flights forced the Wrights to give thought to another scientific problem, that regarding the center of air pressure on curved surfaces. Contrary to the teachings of scientific books on the subject, it was becoming more and more evident that the travel of the center of pressure on a cambered surface is not always in the same direction as the travel on a plane surface. When the angle of attack on a plane surface is decreased, the center of pressure moves toward the front edge; but on a cambered surface this is true only when larger angles are being decreased. When the angle of attack on a cambered surface is decreased from, say, thirty degrees to twenty-five degrees, the center of pressure moves forward, as it does on a plane surface; but when a certain angle (between twelve and fifteen degrees) is reached, then the movement of the center of pressure is reversed. From there on, the center of pressure moves toward the rear so long as any further decrease is made in the angle of attack. The Wrights proved this by a series of experiments with a single surface from their plane. Knowledge of the phenomenon of this reversal of center of pressure was of great importance to them in their later work of designing aeroplanes.

The glider's performance during these different flights prompted the Wright brothers to consider another scientific issue: the center of air pressure on curved surfaces. Contrary to what scientific textbooks suggested, it became increasingly clear that the movement of the center of pressure on a curved surface doesn’t always align with the movement on a flat surface. When the angle of attack on a flat surface is reduced, the center of pressure shifts toward the leading edge; however, this only holds true for larger angle reductions on a curved surface. For instance, when the angle of attack on a curved surface drops from about thirty degrees to twenty-five degrees, the center of pressure moves forward, just like on a flat surface. But once a certain angle (between twelve and fifteen degrees) is reached, the center of pressure starts to move backward. From that point on, it continues to shift toward the rear as the angle of attack decreases further. The Wright brothers demonstrated this through a series of experiments with a single surface from their aircraft. Understanding this reversal of the center of pressure was crucial for their later work on airplane design.

Scientific problems were not the only ones to perplex the Wrights. A sore trial were the mosquitoes and sandfleas,72 particularly numerous and aggressive in that summer of 1901. As Orville Wright recalled in later years, there were times when he thought, while fighting mosquitoes through the night, that if he could just survive until morning he would pack up and return home. Those mosquitoes might have caused a long postponement of the conquest of the air.

Scientific problems weren't the only things that troubled the Wrights. Mosquitoes and sandflies were a major nuisance, especially in the summer of 1901 when they were particularly abundant and aggressive.72 Orville Wright later remembered that there were nights when he thought that if he could just make it until morning while battling the mosquitoes, he would pack up and head home. Those mosquitoes could have delayed their progress in conquering the skies for a long time.

By the time they left Kitty Hawk on August 20, the brothers had satisfied themselves that a glider of large surfaces could be controlled almost as easily as a smaller one, provided the control is by manipulation of the surfaces themselves instead of by movements of the operator’s body. So far as they knew, judging from figures previously published, they had broken all records for distance in gliding. Chanute, who had witnessed part of the 1901 experiments, insisted that the results were better than had ever been attained before. All that was encouraging. But, on the other hand, if most of the supposedly scientific information available was worthless, then their task was even more formidable than they had expected. With no dependable previous knowledge to guide them, who were they to determine how man should fly? Wilbur seemed much discouraged. Possibly he had entertained hopes of actually flying, though he had always disclaimed having such an idea. He was ready to drop the experiments altogether. On the way home, Wilbur declared his belief: Not within a thousand years would man ever fly!

By the time they left Kitty Hawk on August 20, the brothers were convinced that a large-surface glider could be controlled almost as easily as a smaller one, as long as the control came from manipulating the surfaces themselves instead of moving the operator's body. From what they gathered from previously published data, they believed they had set new records for distance in gliding. Chanute, who had witnessed some of the 1901 experiments, insisted that their results were better than anything achieved before. This was encouraging. However, if most of the supposedly scientific information available was useless, then their task was even tougher than they had thought. Without reliable previous knowledge to guide them, who were they to figure out how man should fly? Wilbur seemed really down. He might have had hopes of actually flying, although he always claimed he didn’t think that way. He considered giving up the experiments entirely. On the way home, Wilbur stated his belief: Not within a thousand years would man ever fly!

Chanute urged the brothers not to drop their experiments, arguing that if they did it would be a long time before anyone else would come as near to understanding73 the problem or how to work toward its solution. Without knowing it, Chanute made a great contribution to aviation history, for the Wrights heeded his repeated admonitions against ceasing their efforts. Without the proddings of Chanute they might not have gone on.

Chanute encouraged the brothers not to give up on their experiments, saying that if they did, it would take a long time before anyone else could come close to understanding the problem or how to work on solving it. Unknowingly, Chanute made a significant contribution to aviation history because the Wrights listened to his persistent warnings against stopping their efforts. Without Chanute's encouragement, they might not have continued.

Chanute performed another great service for aeronautics when he, as president of the Western Society of Engineers, invited Wilbur Wright to address that body at a meeting in Chicago, September 18, 1901, on the subject: Some Aeronautical Experiments.

Chanute provided another significant contribution to aeronautics when he, as president of the Western Society of Engineers, invited Wilbur Wright to speak at a meeting in Chicago on September 18, 1901, about the topic: Some Aeronautical Experiments.

Wilbur shrank from the idea of making such a talk and would hardly have done so except to oblige his friend. He cautioned Chanute, though, not to make the speech a prominent feature of the program, because, he said, he made no pretense of being a public speaker. Chanute did nevertheless plan to use the announcement of the talk as a means to help make the meeting a big success. He wanted to know if it would be all right to make the occasion “Ladies’ Night.” Wilbur decided that he would already be as badly scared as a man could be and the presence of women would not make the situation much worse. But he insisted on one thing, that he must not be expected to appear in formal evening dress.

Wilbur was hesitant about giving that talk and would only do it to help his friend. He warned Chanute not to make the speech a main part of the program because he didn’t consider himself a public speaker. However, Chanute planned to use the announcement of the talk to boost the meeting’s success. He wanted to know if it would be okay to call the event “Ladies’ Night.” Wilbur thought he would already be as nervous as possible, and having women there wouldn’t make it much worse. But he insisted on one thing: he couldn't be expected to wear formal evening attire.

In this speech Wilbur boldly declared that the best sets of figures obtainable regarding air pressure against airplane surfaces appeared to contain many serious errors. Orville, at the shop in Dayton, was a little alarmed about that part of the speech. What if something about their own work had been wrong and the figures compiled by various scientists should finally be proved correct? Certainly it was no small responsibility for anyone74 so little known as Wilbur or he to denounce publicly the work of eminent scientists, dignified by preservation in books long regarded as authoritative. It would be both presumptuous and risky to brand supposedly established facts as untrue unless the person doing so could be unassailably sure of his ground.

In this speech, Wilbur confidently stated that the best data available on air pressure against airplane surfaces seemed to have numerous significant errors. Orville, working in the shop in Dayton, felt a bit concerned about that part of the speech. What if there was something wrong with their own work, and the data gathered by various scientists turned out to be correct after all? It was certainly a big responsibility for someone as relatively unknown as Wilbur or himself to publicly challenge the work of respected scientists, which had been preserved in books that were long considered authoritative. It would be both arrogant and risky to label supposedly established facts as false unless the person making that claim was completely confident in their position.

In this cautious state of mind Orville rigged up a little wind-tunnel for the purpose of making a series of tests. This tunnel consisted simply of what appeared to be an old starch box, not more than eighteen inches long, that was lying in the shop. In it he placed a hastily constructed apparatus, a main part of which was simply a metal rod pivoted in the manner of a weather vane. Without attempting to give technical details of the method used, it may be said that a curved surface was balanced against a plane surface in an air current passing through the box. As Orville had provided the box with a glass top he could measure the angles to the wind at which the curved surface and the plane surface of equal area produced equal pressures.

In this careful state of mind, Orville set up a small wind tunnel to carry out a series of tests. This tunnel was basically an old starch box, about eighteen inches long, that he found in the shop. Inside, he placed a quickly assembled device, the main component of which was a metal rod that worked like a weather vane. Without diving into technical details, it can be said that a curved surface was balanced against a flat surface in an air current flowing through the box. Since Orville had added a glass top to the box, he could measure the angles to the wind at which the curved surface and the flat surface of equal area generated equal pressures.

The experiments with this crude apparatus lasted only one day. They were conclusive enough so far as they went, indicating errors in published figures relating to air pressure on curved surfaces. But as Orville was later to learn, the published errors were greatest in regard to wing surfaces set at small angles, such as would be used in flying, and he had tested thus far only larger angles. With the tests thus incomplete, Orville and Wilbur decided, on the latter’s return from Chicago, that it might be prudent to stay on the safe side and omit from the published record of Wilbur’s speech the more severe75 part of his criticism of available figures. They would wait until further wind-tunnel experiments could give more detailed knowledge. Consequently, when Wilbur’s speech appeared in the December, 1901, issue of the Journal of the Western Society of Engineers, it was a bit less startling than the one he had actually delivered—though, even after the deletions, there still remained strong hints that accepted tables of figures might be wrong. And the record of the speech was treated as of great importance. It has probably been reprinted and quoted as often as any other article ever written on the subject of flying.

The experiments with this basic equipment lasted just one day. They were conclusive enough for their scope, showing errors in the published data regarding air pressure on curved surfaces. However, as Orville would later discover, the errors in the published data were most significant for wing surfaces at small angles, which are used in actual flight, and he had only tested larger angles so far. With the tests incomplete, Orville and Wilbur decided, after Wilbur returned from Chicago, that it might be wise to err on the side of caution and leave out the more severe part of Wilbur’s criticism of the available figures from the published record of his speech. They planned to wait until further wind-tunnel experiments could provide more detailed information. As a result, when Wilbur’s speech was published in the December 1901 issue of the Journal of the Western Society of Engineers, it was a bit less shocking than the one he actually gave—though, even after the cuts, there were still strong indications that the accepted tables of figures might be incorrect. The record of the speech was considered very important. It has likely been reprinted and quoted more frequently than any other article ever written on the topic of flying.

The Wrights were not sure they would ever build another glider. But their curiosity, their passion for getting at truth, had now been too much aroused for them to quit studying the problem of air pressures. They decided to build another wind-tunnel, less crude than the one Orville had hastily used, and continue their experiments. The new tunnel consisted of an open-ended wooden box about sixteen inches square on the inside by six feet long. Into one end would come a current of air and the draft thus created would be “straightened,” as well as made uniform, by having to pass through a set of small pigeon-holes. It would have been a great convenience to use an electric fan for sending the air into the tunnel. But the Wrights had no electric current in their shop—still lighted by gas—and the fan was driven by a one-cylinder gas engine they had previously made. They attached the fan to a spindle that had held an emery wheel. A new measuring device, or balance, was built of wire intended for bicycle spokes, and pieces of76 hacksaw blades. These experiments were now done with much more refinement than at first, and the measurements were for both “lift” and “drift.” But as each curved surface measured was balanced against the pressure on a square plane, exposed at ninety degrees to the same air current, it was not necessary to know the precise speed of the air current.

The Wrights weren’t sure if they would ever build another glider. But their curiosity and passion for discovering the truth were too strong for them to stop studying the issue of air pressures. They decided to build another wind tunnel, one that's more advanced than the crude version Orville had quickly used, and continue their experiments. The new tunnel was an open-ended wooden box about sixteen inches square and six feet long. Air would flow in from one end, and the draft created would be “straightened” and made uniform by passing through a set of small holes. It would have been convenient to use an electric fan to push the air into the tunnel. However, the Wrights didn’t have electric power in their shop, which was still lit by gas, so the fan was operated by a one-cylinder gas engine they had made earlier. They attached the fan to a spindle that had held an emery wheel. A new measuring device, or balance, was crafted from wire meant for bicycle spokes and pieces of hacksaw blades. These experiments were now conducted with much more precision than before, and the measurements were taken for both “lift” and “drift.” As each curved surface was measured against the pressure on a square plane exposed at ninety degrees to the same air current, it wasn’t necessary to know the exact speed of the air current.

During that autumn and early winter of 1901, the brothers tested in the wind-tunnel more than two hundred types of wing surfaces. They set these at different angles, starting with the angle at which the surface begins to lift, and then at 2½ degree intervals, up to twenty; and at five degree intervals up to forty-five degrees. They measured monoplane, biplane, and triplane models; also models in which one wing followed the other, as used by Langley in his experiments. They measured the lift produced by different “aspect ratios”—that is, the ratio of the span of the wing to its chord. They found that the greater the span in proportion to the chord the more easily the wing may be supported. They measured thick and thin surfaces. One surface had a thickness of nearly one-sixth of its chord.

During that autumn and early winter of 1901, the brothers tested over two hundred types of wing surfaces in the wind tunnel. They set these at various angles, starting with the angle at which the surface begins to lift, and then increased by 2.5-degree intervals up to twenty degrees; and at five-degree intervals up to forty-five degrees. They measured monoplane, biplane, and triplane models, as well as models where one wing followed another, similar to what Langley used in his experiments. They measured the lift generated by different “aspect ratios”—that is, the ratio of the wing's span to its chord. They discovered that a greater span in relation to the chord resulted in easier wing support. They tested both thick and thin surfaces, with one surface having a thickness of nearly one-sixth of its chord.

Among other things, these experiments proved the fallacy of the sharp edge at the front of an airplane wing and the inefficiency of deeply cambered wings as then generally advocated by others. Sometimes they got a result so unexpected that they could hardly believe their own measurements—as, for example, when they discovered that, contrary to all previously published figures by students of the subject, a square plane gave a greater77 pressure when set at thirty degrees than at forty-five degrees.

Among other things, these experiments showed the mistake of thinking that a sharp edge at the front of an airplane wing is effective and highlighted the ineffectiveness of wings with a deep curve, which was commonly recommended by others at the time. Occasionally, they got results so surprising that they could barely trust their own measurements—like when they found out that, contrary to all previous data published by experts in the field, a square wing created more pressure at thirty degrees than at forty-five degrees.

These wind-tunnel experiments in the bicycle shop were carried on for only a little more than two months, and were ended before Christmas, 1901. The Wrights discontinued them with great reluctance; but, after all, they were still in the bicycle business, still obliged to give thought to their means for earning a living, and with no idea that this scientific research could ever be financially profitable. In those few weeks, however, they had accomplished something of almost incalculable importance. They had not only made the first wind-tunnel in which miniature wings were accurately tested, but were the first men in all the world to compile tables of figures from which one might design an airplane that could fly. Even today, in wind-tunnels used in various aeronautical laboratories, equipped with the most elaborate and delicate instruments modern science can provide, the refinements obtained over the Wrights’ figures for the same shapes of surfaces are surprisingly small. But it is doubtful if the difficulties and full value of the Wrights’ scientific researches within their bicycle shop are yet appreciated. The world knows they were the first to build a machine capable of sustained flight and the first actually to fly; but it is not fully aware of all the tedious, grueling scientific laboratory work they had to do before flight was possible. Important as was the system of control with which the Wrights’ name has been connected, it would not have given them success without their wind-tunnel work which enabled them to design a machine that would lift itself.

These wind-tunnel experiments in the bike shop lasted just over two months and wrapped up before Christmas in 1901. The Wrights ended them with great reluctance, but they were still running a bike business and needed to think about how to make a living, with no expectation that this scientific research would ever make money. However, in those few weeks, they accomplished something of immense significance. They not only created the first wind tunnel where miniature wings were accurately tested, but they were also the first in the world to compile tables of data that could be used to design a flying airplane. Even today, in wind tunnels used at various aerospace labs, equipped with the most advanced instruments modern science can offer, the improvements over the Wrights' data for the same types of surfaces are surprisingly minor. Yet, it’s uncertain whether the challenges and true value of the Wrights' scientific work in their bike shop are fully recognized. The world knows they were the first to build a machine capable of sustained flight and the first to successfully fly, but it doesn’t completely understand all the tedious, intense scientific lab work they had to do before flight was achievable. As important as the control system associated with the Wrights is, it wouldn’t have led to their success without the wind-tunnel work that allowed them to design a machine capable of lifting off.

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The Wrights had a double reason for making sure of their figures. With little money to spend on a hobby, it was much cheaper to rectify mistakes on paper than after the idea was put into material form. They knew that if they should decide to go on to further gliding attempts, they could not afford to spend much more money on apparatus built according to unreliable data.

The Wrights had two good reasons to be precise with their calculations. With limited funds for their hobby, it was far cheaper to fix mistakes on paper than after they created something physical. They understood that if they wanted to continue with more gliding attempts, they couldn’t afford to waste any more money on equipment based on inaccurate information.

After compiling their own tables of figures, the Wrights gave copies of them to their friend Chanute and others interested in the problem of aerodynamics. Chanute well knew that the Wrights now had knowledge of aeronautics far beyond that of anyone else in the world, and he felt that for them to go on with their experiments was almost a duty. He much regretted, in the interest of science, he said, that they had reached a stopping-place, for he was sure further experiments on their part promised “important results.”

After putting together their own data tables, the Wrights shared copies with their friend Chanute and others who were interested in aerodynamics. Chanute was well aware that the Wrights possessed knowledge of aeronautics that surpassed anyone else in the world, and he believed it was almost their responsibility to continue their experiments. He expressed regret, in the interest of science, that they had hit a pause, as he was convinced that more experiments from them would lead to "important results."

Chanute might well have felt pride in the effectiveness of his insistence that the Wrights should go on experimenting, as well as in the results of his invitation to Wilbur to make that Chicago speech. Except for that speech and its daring statements that Orville thought needed more confirmation, there probably would have been no wind-tunnel tests; and without the kind of knowledge then obtained, neither the Wrights nor anyone else could have built a practical flying-machine. Those wind-tunnel experiments marked one of the great turning points in the long history of attempts at human flight.

Chanute could have felt proud of how effective he was in insisting that the Wrights keep experimenting, as well as the results of his invitation for Wilbur to give that speech in Chicago. If it weren't for that speech and its bold claims, which Orville believed needed more proof, there likely would not have been any wind-tunnel tests; and without the insights gained from those tests, neither the Wrights nor anyone else would have been able to build a practical flying machine. Those wind-tunnel experiments represented a significant turning point in the long history of efforts to achieve human flight.

It still remained for the Wrights to put their new knowledge to actual test in gliding, and they set out on79 August 25, 1902, for their third stay at Kitty Hawk. But not until September 8 were they able to begin the work of assembling their new glider, for the camp, battered by winter gales, needed much repairing; and they decided to build an addition to it for living quarters. They did not have their machine ready for its first trial until September 19.

It was still up to the Wright brothers to test their new knowledge in gliding, so they headed out on79 August 25, 1902, for their third stay at Kitty Hawk. However, they couldn't start assembling their new glider until September 8 because the camp had been damaged by winter storms and needed a lot of repairs. They also decided to build an extension for living quarters. They didn't have their machine ready for its first test until September 19.

This new glider was of not much greater lifting area than that of the previous year, though the wing span had been increased from twenty-two to thirty-two feet. But since the wind-tunnel experiments had demonstrated the importance of the “aspect ratio,” the total span was now about six times the chord instead of three. One minor change also may be noted. In the earlier gliders, the wing-warping mechanism had been worked by movement of the operator’s feet; but now in this 1902 glider it was done by sidewise movement of one’s hips resting on a “cradle.” The most noticeable change was the addition of a tail, consisting of fixed twin vertical vanes, with a total area of a trifle less than twelve square feet. Its purpose was to correct certain difficulties encountered in some of the flights with the 1901 machine. When the wing surfaces at the right and left sides were warped to present different angles toward the wind, the wing that had the greater angle, and therefore the more resistance, tended to lag behind, and then the slower speed offset what otherwise would have been the greater lifting power of that wing. The tail was expected to counter-balance that difference in resistance of the wing tips. If the wing on one side tended to swerve forward, on a vertical axis, then the tail, more exposed80 to the wind on that same side, should, it was thought, stop the machine from further turning.

This new glider had only a slightly larger lifting area than the one from the previous year, although the wingspan had been increased from twenty-two to thirty-two feet. However, since wind tunnel tests had shown the importance of the “aspect ratio,” the total span was now about six times the chord instead of three. One minor change worth noting was that in the earlier gliders, the wing-warping mechanism was controlled by the operator’s foot movements; in this 1902 glider, it was managed by side-to-side movements of the operator’s hips resting on a “cradle.” The most significant change was the addition of a tail, which consisted of fixed twin vertical vanes with a total area of slightly less than twelve square feet. Its purpose was to address certain issues encountered during some flights with the 1901 model. When the wing surfaces on the right and left sides were warped to create different angles against the wind, the wing with the greater angle—and thus more resistance—tended to lag behind, and this slower speed reduced the otherwise greater lifting power of that wing. The tail was expected to balance out that difference in resistance between the wing tips. If the wing on one side tended to move forward around a vertical axis, then the tail, which was more exposed to the wind on that same side, was believed to prevent the machine from turning further.

Entirely apart from any advantages to be gained from the use of the tail, the first trials of the new machine were highly encouraging for another reason. It was soon evident that by disregarding all tables of air pressures used by their predecessors and building according to the figures obtained from their wind-tunnel experiments, the Wrights had made a big advance toward flight. Because of the knowledge they now had, not possessed by any previous experimenter, of how the wings should be shaped, this 1902 machine was of just about twice the “dynamic efficiency” of any other glider ever built; it could have been flown with probably less than half the power required for any other glider.

Completely aside from any benefits of using the tail, the first tests of the new machine were very promising for another reason. It quickly became clear that by ignoring all the air pressure tables used by their predecessors and relying on the data from their wind-tunnel experiments, the Wrights made significant progress towards flight. With the knowledge they gained, which no previous experimenter had, about how the wings should be designed, this 1902 machine had nearly double the “dynamic efficiency” of any other glider ever made; it could likely be flown with less than half the power needed for any other glider.

Altogether the Wrights made more than one thousand gliding flights in September and October, 1902. Several glides were of more than six hundred feet, and a number of them were against a thirty-six-mile-an-hour wind. No previous experimenter had ever dared to try gliding in so stiff a wind. That the Wrights were successful at such feats gave proof of the effectiveness of their devices for control. Some of their flights lasted more than a minute and at times it was possible to soar in one spot without any descent. So impressive were such exhibitions that Bill Tate’s brother Dan solemnly offered the opinion: “All she needs is a coat of feathers to make her light and she will stay in the air indefinitely.”

Altogether, the Wright brothers completed over a thousand gliding flights in September and October of 1902. Several of the glides were over six hundred feet long, and many of them were made against a thirty-six-mile-an-hour wind. No previous experimenter had ever attempted gliding in such a strong wind. The Wrights' success in these conditions proved the effectiveness of their control devices. Some of their flights lasted more than a minute, and at times they were able to stay in one spot without descending. These displays were so impressive that Bill Tate’s brother Dan seriously remarked, “All it needs is a coat of feathers to make it light, and it will stay in the air indefinitely.”

About one time in fifty, however, the machine behaved in a manner quite mysterious. It would turn up sidewise and come sliding to the ground in spite of all81 the warp the operator could give to the wing tips. At one trial the lateral control would work perfectly and then the next time, under conditions that seemed to be about the same, it was impossible to prevent one wing end from striking the sand with a kind of spinning movement that the brothers called “well-digging.”

About once in every fifty tries, though, the machine acted in a completely strange way. It would tip sideways and come sliding down no matter how much effort the operator put into adjusting the wing tips. In one attempt, the lateral control worked flawlessly, but then the next time, under what seemed to be similar conditions, it was impossible to stop one wing tip from hitting the sand in a spinning motion that the brothers referred to as “well-digging.”81

This new problem, that had not occurred in their previous gliders, came from the fact that the machine had a tail. Those “well-digging” accidents were tail-spins—though that term did not come into use until several years afterward. But even after it was evident that the tail had something to do with the machine’s peculiar behavior, neither brother was prepared to explain why. Then one night Orville drank more than his customary amount of coffee. Instead of going to sleep as usual the moment he got into bed, he lay awake for several hours. Those extra cups of coffee may have been important for the future of practical flight for, as he tossed about, he figured out the explanation of the phenomenon caused by the tail. Here it is, as he eagerly gave it to Wilbur, and to their brother Lorin, who was visiting them, at breakfast the next morning:

This new problem, which hadn’t happened with their previous gliders, was due to the fact that the machine had a tail. Those “well-digging” accidents were tail-spins—although that term didn’t come into use until several years later. Even after it became clear that the tail was related to the machine's unusual behavior, neither brother was ready to explain why. Then one night, Orville drank more coffee than usual. Instead of falling asleep right after getting into bed like he normally did, he lay awake for several hours. Those extra cups of coffee might have been crucial for the future of practical flight because, as he tossed and turned, he figured out the explanation for the phenomenon caused by the tail. Here it is, as he eagerly shared it with Wilbur, and their brother Lorin, who was visiting them, at breakfast the next morning:

When the machine became tilted laterally it began to slide sidewise while advancing, just as a sled slides downhill or a ball rolls down an inclined plane, the speed increasing in an accelerated ratio. If the tilt happened to be a little worse than usual, or if the operator were a little slow in getting the balance corrected, the machine slid sidewise so fast that this movement caused the vertical vanes to strike the wind on the side toward the low wing instead of on the side toward the high wing, as it82 was expected to do. In this state of affairs the vertical vanes did not counteract the turning of the machine about a vertical axis, caused by the difference of resistance of the warped wings on the right and left sides; on the contrary, the vanes assisted in the turning movement, and the result was worse than if there were no fixed vertical tail.

When the machine tilted to the side, it started to slide sideways while moving forward, just like a sled goes downhill or a ball rolls down a slope, picking up speed quickly. If the tilt was a bit worse than usual, or if the operator was slow to correct the balance, the machine slid sideways so rapidly that the vertical vanes hit the wind on the side of the low wing instead of the high wing, as was intended. In this situation, the vertical vanes didn’t counteract the machine's rotation around a vertical axis due to the uneven resistance of the warped wings on the left and right; instead, the vanes actually helped with the turning motion, making things worse than if there were no fixed vertical tail at all.

If his explanation was sound, as Orville felt sure it was, then, he said, it would be necessary to make the vertical tail movable, to permit the operator to bring pressure to bear on the side toward the higher wing. (This is the form of the Wright system of control generally used today—the independent control of aileron and rudder.)

If his explanation was correct, which Orville was confident it was, then, he said, it would be important to make the vertical tail movable so that the operator could apply pressure on the side of the higher wing. (This is the way the Wright system of control is usually implemented today—the independent control of the aileron and rudder.)

Wilbur promptly saw that the explanation was probably correct and nodded approvingly. And he immediately made a suggestion. A particular relation existed, he said, in the desired pressures on the tail, no matter whether the trouble was due to difference of resistance of the wing tips or on account of sliding. Whatever the reason, it was desirable to get rid of the pressure on the side toward the low wing, to which a greater angle of incidence must be imparted in restoring lateral balance, and bring pressure on the side of the tail toward the high wing where there must be a reduced angle. So why not have the mechanism that controlled the wing warping and that which moved the tail operated in conjunction? Then the pilot, instead of having to control three things at once, would need to attend only to the front elevator and the wing-warping device. The brothers at once attached the wires controlling the tail to those that83 warped the wings—and they also changed the tail from two vertical fins to a single vertical rudder.

Wilbur quickly recognized that the explanation was likely accurate and nodded in agreement. He then suggested an idea. He pointed out that there was a specific relationship in the pressures on the tail, regardless of whether the issue came from differences in resistance at the wing tips or from sliding. Whatever the cause, it was important to eliminate the pressure on the side toward the low wing, which required a greater angle of incidence to restore lateral balance, while increasing pressure on the side of the tail toward the high wing, where a reduced angle was necessary. So, why not have the mechanism that controlled the wing warping and the one that moved the tail work together? This way, the pilot wouldn't have to manage three controls at once, but could focus only on the front elevator and the wing-warping device. The brothers immediately connected the wires that controlled the tail to those that warped the wings—and they also changed the tail from two vertical fins to a single vertical rudder.

After the changes in the 1902 glider, the Wrights had their machine in about the form pictured and described in the drawings and specifications of their patent, applied for on the 23rd of the next March.

After the modifications to the 1902 glider, the Wright brothers had their aircraft ready in roughly the shape shown and detailed in the drawings and specifications of their patent, which they applied for on March 23rd of the following year.

With their accurate data for making calculations, and a system of balance effective in winds as well as in calms, the brothers believed that they now could build a successful power-flyer.

With their precise data for doing calculations, and a balancing system that worked well in both windy and calm conditions, the brothers thought they could now create a successful power-flyer.


Immediately on their return to Dayton after the 1902 glider flights, the Wrights set to work to carry out plans, already begun at Kitty Hawk, for a power machine. The satisfactory performance of the glider had demonstrated the accuracy of the laboratory work on which its design was based, and they now felt sure they could calculate in advance the performance of any machine they built with a degree of accuracy not possible with the data available to their predecessors.

Right on after getting back to Dayton following the 1902 glider flights, the Wrights got to work on plans they had already started at Kitty Hawk for a powered machine. The successful performance of the glider had shown that the lab work behind its design was accurate, and they now believed they could predict the performance of any machine they built with a level of accuracy that wasn’t possible with the information available to those before them.

Early in their preparations, they took steps to obtain a suitable engine. They knew that a steam engine might do well enough for their purpose, but a gasoline engine would be simpler and better. Some time previously they had built an air-cooled, one-cylinder gas engine for operating the machinery of their small workshop; but they did not feel experienced enough to build the kind they now needed and preferred to buy one.

Early in their preparations, they took steps to find a suitable engine. They knew that a steam engine might work for their needs, but a gasoline engine would be simpler and more efficient. Some time before, they had built an air-cooled, one-cylinder gas engine to run the machinery in their small workshop; however, they didn't feel experienced enough to build the type they now required and preferred to buy one.

INSIDE THE 1902 CAMP. The kitchen corner of the 1902 camp at Kitty Hawk.

They wanted a motor to produce at least eight horsepower and to weigh, without accessories, not more than twenty pounds per horsepower. It seemed doubtful if such a motor as they required was then being manufactured; but perhaps one of the automobile companies could build one light enough by reducing the weight of the flywheel and using more aluminum than in the regular85 output. On December 3, 1902, they sent letters to a number of automobile companies, and to gasoline motor manufacturers, altogether to nearly a dozen, asking if they could furnish a motor that would develop eight brake horsepower and weigh not more than 200 pounds. Orville Wright was not sure in after years whether he and Wilbur revealed in their letters the use they planned for the motor they were seeking; but most of the companies replied that they were too busy with their regular business to undertake such a special order. There is reason to suspect the companies may have got wind of the purpose to which the motor would be put and were afraid to become implicated in the project. If a company provided a motor for a so-called flying-machine, and this fact should leak out, it could hurt their business prestige, because it might look as if they considered human flight a possibility.

They wanted a motor that could produce at least eight horsepower and weigh no more than twenty pounds for each horsepower, excluding accessories. It seemed unlikely that such a motor was currently being produced; however, one of the automobile companies might be able to create a light enough version by reducing the flywheel's weight and using more aluminum than usual. On December 3, 1902, they sent letters to several automobile companies and gasoline motor manufacturers, nearly a dozen in total, asking if they could supply a motor that would generate eight brake horsepower and weigh no more than 200 pounds. Orville Wright later wondered whether he and Wilbur mentioned in their letters the specific use they intended for the motor they were looking for; but most companies responded that they were too busy with their regular work to take on such a special request. There’s reason to believe the companies may have sensed the purpose for which the motor was intended and were hesitant to get involved in the project. If a company supplied a motor for a so-called flying machine, and that fact became known, it could damage their business reputation, as it might imply they considered human flight a real possibility.

FROM ORVILLE WRIGHT’S DIARY. Part of the entry for December 17, 1903—the day of the first power flight.

FROM ORVILLE WRIGHT’S DIARY. Part of the entry for December 17, 1903—the day of the first powered flight.

Thursday, Dec. 17th

Thursday, Dec. 17

When we got up a wind of between 20 and 25 miles was blowing from the north. We got the machine out early and put out the signal for the men at the station. Before we were quite ready, John T. Daniels, W. S. Dough, A. D. Etheridge, W. C. Brinkley of Manteo, and Johnny Moore of Nags Head arrived. After running the engine and propellers a few minutes to get them in working order, I got on the machine at 10:35 for the first trial. The wind, according to our anemometers at this time, was blowing a little over 20 miles (corrected) 27 miles according to the Government anemometer at Kitty Hawk. On slipping the rope the machine started off increasing in speed to probably 7 or 8 miles. The machine lifted from the truck just as it was entering on the fourth rail. Mr. Daniels took a picture just as it left the tracks. I found the control of the front rudder quite difficult on account of its being balanced too near the center and thus had a tendency to turn itself when started so that the rudder was turned too far on one side and then too

When we got up, there was a wind blowing from the north at about 20 to 25 miles per hour. We got the machine out early and signaled to the men at the station. Before we were fully ready, John T. Daniels, W. S. Dough, A. D. Etheridge, W. C. Brinkley from Manteo, and Johnny Moore from Nags Head showed up. After running the engine and propellers for a few minutes to get them in working order, I got on the machine at 10:35 for the first trial. The wind, according to our anemometers at that time, was blowing a little over 20 miles per hour (corrected to) 27 miles per hour according to the Government anemometer at Kitty Hawk. When I released the rope, the machine started to take off, increasing in speed to probably 7 or 8 miles per hour. It lifted off the truck just as it was about to enter the fourth rail. Mr. Daniels took a picture right as it left the tracks. I found it quite difficult to control the front rudder because it was balanced too close to the center, which made it tend to turn itself when starting, causing the rudder to shift too far to one side and then too.

One company replied, however, that they had motors, rated at eight horsepower, according to the French system of ratings, which weighed only 135 pounds, and if the Wrights thought this would develop enough power for their purpose, they could buy one. After an examination of the particulars of this motor, from which they learned that it had but a single cylinder, of four-inch bore and five-inch stroke, the Wrights decided that its power was probably much overrated.

One company responded, however, that they had motors rated at eight horsepower, according to the French system of ratings, which weighed only 135 pounds. If the Wrights thought this would provide enough power for their needs, they could purchase one. After examining the details of this motor, they discovered it only had a single cylinder with a four-inch bore and a five-inch stroke. The Wrights concluded that its power was likely much overrated.

Finally the brothers decided that they would have to build their motor themselves. They estimated that they could make one of four cylinders, of four-inch bore and four-inch stroke, weighing not more than two hundred pounds, with accessories included. Their mechanic,86 Charlie Taylor, gave them enthusiastic help. In its final form, the bare engine, without magneto, weighed 152 pounds; with accessories, 170 pounds. At 1,200 revolutions per minute, it developed sixteen horsepower—but only for the first fifteen seconds after starting; after a minute or two it did not give more than about twelve horsepower. Since, however, they had not counted on more than eight horsepower, for a machine of a total weight of 600 pounds, now they could add 150 pounds for strengthening wings and other parts. Not yet knowing how much power an engine of that size ought to have developed, the Wrights were much pleased with its performance. Long afterward they found out that the engine should have provided about twice as much power as it did. The trouble, as they later said, was their “lack of experience in building gasoline motors.”

Finally, the brothers decided they would have to build their own engine. They estimated they could create a four-cylinder engine with a four-inch bore and a four-inch stroke, weighing no more than two hundred pounds, including accessories. Their mechanic, 86 Charlie Taylor, provided enthusiastic support. In its final version, the bare engine, without the magneto, weighed 152 pounds; with accessories, it was 170 pounds. At 1,200 revolutions per minute, it produced sixteen horsepower—but only for the first fifteen seconds after starting; after a minute or two, it delivered only about twelve horsepower. However, since they hadn't expected more than eight horsepower for a machine weighing a total of 600 pounds, they could now add 150 pounds for strengthening the wings and other components. Not yet knowing how much power an engine of that size was supposed to produce, the Wrights were quite pleased with its performance. Much later, they discovered that the engine should have generated about twice the power it actually did. The problem, as they later noted, was their “lack of experience in building gasoline motors.”

The wings of this new power machine had a total span of a few inches more than forty feet, and the upper and lower wing surfaces were six feet apart. To reduce the danger of the engine ever falling on the pilot, it was placed on the lower wing a little to right of center. The pilot would ride lying flat, as on the glider, but to the left of center, to balance the weight. To guard against the machine rolling over in landing, the sled-like runners were extended farther out in front of the main surfaces than on the glider. These two runners were four feet, eight inches apart. The tail of the machine had twin movable vanes instead of a single vane as in the 1902 glider.

The wings of this new power machine had a total span of just over forty feet, with the upper and lower wing surfaces six feet apart. To minimize the risk of the engine falling on the pilot, it was positioned on the lower wing slightly to the right of center. The pilot would lie flat, like on the glider, but to the left of center to balance the weight. To prevent the machine from rolling over during landing, the sled-like runners extended further out in front of the main surfaces compared to the glider. These two runners were four feet, eight inches apart. The tail of the machine featured twin movable vanes instead of a single vane as seen in the 1902 glider.

The Wrights left the designing of the propellers until the last, because they felt sure that part of the job would87 be easy enough. Their tables of air pressures, derived from wind-tunnel experiments, would enable them, they thought, to calculate exactly the thrust necessary to sustain the machine in flight. But to design a propeller that would give the needed amount of thrust, with the power at their command, was a problem they had not yet considered. No data on air propellers were available, but the Wrights had always understood that it was not difficult to obtain an efficiency of fifty per cent with marine propellers. All that should be necessary would be to learn the theory of the operation of propellers from books on marine engineering and then substitute air pressures for water pressures. What could be simpler or easier? Accordingly, the brothers got several such books from the Dayton Public Library. But when they began to read those books, they discovered to their surprise that much less was known about propellers than they had supposed.

The Wright brothers postponed designing the propellers until the end because they were confident that part of the task would be straightforward. They believed their tables of air pressures, based on wind-tunnel experiments, would allow them to precisely calculate the thrust needed to keep the machine in the air. However, figuring out how to create a propeller that could deliver the required thrust with the power they had was a challenge they hadn't yet addressed. There was no information on air propellers available, but the Wrights had always thought that achieving fifty percent efficiency with marine propellers wasn't tough. They figured all they needed to do was learn the theory of propeller operation from marine engineering books and then apply air pressures instead of water pressures. What could be more straightforward? So, the brothers borrowed several of these books from the Dayton Public Library. But when they started reading, they were surprised to find that far less was known about propellers than they had expected.

All the formulae on propellers in the books were found to be based on experiment and observation rather than on theory. The marine engineers, when they saw that a propeller would not move a boat fast enough, had then tried one larger, or of a different pitch, until they got one that would serve their purpose. But they could not design a propeller on paper and foresee exactly what its performance on a certain type of motor-boat would be. Exact knowledge of the action of the screw propeller, though it had been in use for a century, was still lacking.

All the formulas about propellers in the books were actually based on experiments and observations rather than on theory. Marine engineers, when they noticed that a propeller wasn't moving a boat fast enough, tried a larger one or one with a different pitch until they found one that worked for them. However, they couldn't design a propeller on paper and predict exactly how it would perform on a specific type of motorboat. Even though the screw propeller had been in use for a century, precise knowledge about its action was still missing.

The Wrights knew that rough estimates, which might be near enough for a motor-boat, would not do88 for an airplane. On a boat a propeller having only a fraction of one per cent of the desired efficiency could move the boat a little; but on an airplane, unless the propeller had the full amount of thrust needed, it would be worthless, for it couldn’t lift the plane into the air at all! In short, the Wrights had to have a propeller that would do exactly what was expected of it. And they had neither the time nor money to carry on a long series of experiments with different kinds of propellers until they could hit on one suitable. They couldn’t afford to make mistakes except on paper. They must somehow learn enough about how propellers acted, and why, to enable them to make accurate calculations.

The Wrights understood that rough estimates, which might be good enough for a motorboat, wouldn't work for an airplane. On a boat, a propeller that had only a tiny fraction of the needed efficiency could still move it a bit; but on an airplane, if the propeller didn’t provide the full thrust required, it would be useless because it couldn't lift the plane into the air at all! In short, the Wrights needed a propeller that would perform exactly as expected. They didn’t have the time or money to conduct a long series of experiments with different types of propellers to find a suitable one. They couldn’t afford to make mistakes unless it was on paper. They needed to figure out enough about how propellers worked and why, so they could make accurate calculations.

It was apparent to the Wrights that a propeller was simply an airfoil traveling in a spiral course. As they could calculate the effect of an airfoil traveling in a straight course, why should they not be able to calculate the effect in a spiral course? At first thought that did not seem too difficult, but they soon found that they had let themselves into a tough job. Since nothing about a propeller, or the medium in which it acts, would be standing still, it was not easy to find even a point from which to make a start. The more they studied it, the more complex the problem became. “The thrust depends upon the speed and the angle at which the blade strikes the air; the angle at which the blade strikes the air depends upon the speed at which the propeller is turning, the speed the machine is traveling forward, and the speed at which the air is slipping backward; the slip of the air backward depends upon the thrust exerted by the propeller, and the amount of air acted upon.” It was89 not exactly as simple as some of the problems in the school arithmetic—to determine how many sheep a man had or how many leaps a hound must make to overtake a hare.

It was clear to the Wrights that a propeller was just an airfoil moving in a spiral path. Since they could calculate how an airfoil behaves in a straight line, why couldn't they figure out how it works in a spiral? At first, that didn't seem too hard, but they quickly realized they were in for a tough challenge. With everything about a propeller and the air around it constantly moving, it was tough to find a starting point. The more they explored it, the more complicated the problem became. “The thrust depends on the speed and the angle at which the blade hits the air; the angle at which the blade hits the air depends on how fast the propeller is spinning, the speed at which the machine is moving forward, and the speed of the air flowing backward; the airflow moving backward depends on the thrust produced by the propeller and the amount of air being acted upon.” It wasn't exactly as straightforward as some of the math problems in school—like figuring out how many sheep a man had or how many jumps a hound needed to catch a hare.

In trying to work out a theory about the action of screw propellers, Wilbur and Orville got into many arguments. Right here it may be noted that this habit the brothers had of arguing technical points was one of the reasons why they were able to accomplish all they finally did in a relatively short time. Neither was a “yes” man to the other. But in their arguments about propellers a peculiar thing happened. “Often,” Orville later reported, “after an hour or so of heated argument, we would discover that we were as far from agreement as when we started, but that each had changed to the other’s original position.”

In trying to figure out a theory about how screw propellers work, Wilbur and Orville got into a lot of arguments. It's worth mentioning that their habit of debating technical details was one of the reasons they were able to achieve so much in a relatively short time. Neither of them was a “yes” man to the other. However, something strange happened during their discussions about propellers. “Often,” Orville later said, “after an hour or so of heated argument, we would find that we were just as far from agreeing as when we started, but that each had switched to the other’s original position.”

Many months passed before the intricacies of the problem began to untangle themselves. The Wrights finally got a better understanding of the action of screw propellers than anyone had ever had before. The time came when they felt sure of their ability to design propellers of exactly the right diameter, pitch, and area for their needs.

Many months went by before the complexities of the problem started to make sense. The Wrights finally gained a deeper understanding of how screw propellers worked than anyone had before. Eventually, they felt confident in their ability to design propellers with the perfect diameter, pitch, and area for their needs.

A calculation indicated that 305 revolutions of the propeller would be required to produce 100 pounds thrust. Later, actual measurement showed that only 302 instead of 305 propeller turns were required, or just under one per cent of the calculated amount. The propellers delivered in useful work 66 per cent of the power expended. That was about one-third more than either90 Hiram Maxim or Professor Langley in their attempts at flying had ever been able to attain.

A calculation showed that 305 revolutions of the propeller would be needed to generate 100 pounds of thrust. Later measurements revealed that only 302 propeller turns were actually required, which is just under one percent less than what was calculated. The propellers produced useful work at 66 percent of the power used. This was about a third more than what either 90 Hiram Maxim or Professor Langley had been able to achieve in their flying experiments.

For two reasons the Wrights decided to use two propellers. First, they could in that way obtain a reaction against a greater quantity of air, and at the same time use a larger pitch angle; and, by having the propellers run in opposite directions, the gyroscopic action of one would neutralize that of the other. The propellers were on tubular shafts about ten feet apart, both driven by chains running over sprockets, somewhat as on a bicycle.

For two reasons, the Wrights chose to use two propellers. First, this way they could generate a reaction against a larger volume of air and also use a steeper pitch angle. By having the propellers rotate in opposite directions, the gyroscopic effect of one would cancel out the effect of the other. The propellers were mounted on tubular shafts about ten feet apart, both powered by chains running over sprockets, similar to a bicycle.

L. M. Wainwright, president of the Diamond Chain Company, of Indianapolis, became interested in the Wrights’ transmission problem, and gave them valuable advice.

L. M. Wainwright, president of the Diamond Chain Company in Indianapolis, became interested in the Wrights' transmission issue and offered them helpful advice.

The Wrights found that the chains would have to be run through guides to prevent slapping and to overcome undue stresses on the machine. They adopted tubular guides and found that they could cross one of the chains in a figure eight and thus have the propellers running in opposite directions.

The Wrights discovered that the chains needed to be run through guides to stop them from slapping around and to reduce unnecessary stress on the machine. They chose tubular guides and realized they could cross one of the chains in a figure eight, allowing the propellers to spin in opposite directions.

Not until September 23 was all in readiness for the Wrights to set out for Kitty Hawk. They were able to make good connections with a boat and arrived at camp two days later, on a Friday. Discussing en route what they hoped to accomplish, neither had the slightest doubt about the fulfillment of their dreams. Besides being full of confidence they also felt the exuberance of excellent physical condition. Orville was now thirty-two years old and Wilbur thirty-six. Five foot ten and a quarter inches in height, Wilbur was the taller of the91 two by a little more than an inch and a half. Orville weighed 145 pounds, about five more than Wilbur. Each of them had grayish-blue eyes and they might have been recognized as brothers, though in their own family Wilbur at that time was considered “more of a Wright” in his facial conformation. Orville looked a little more like his mother. Both were suitably built for bird men.

Not until September 23 was everything ready for the Wrights to head to Kitty Hawk. They managed to get a good connection with a boat and reached the camp two days later, on a Friday. While discussing their plans along the way, neither of them doubted that they would achieve their dreams. In addition to their confidence, they also felt the excitement of being in great physical shape. Orville was now thirty-two years old, and Wilbur was thirty-six. At five foot ten and a quarter inches tall, Wilbur was the taller of the91 two by just over an inch and a half. Orville weighed 145 pounds, about five more than Wilbur. Both of them had grayish-blue eyes, making it easy to recognize them as brothers, although in their family, Wilbur was considered “more of a Wright” in terms of his facial features. Orville resembled their mother a bit more. Both were well-built for aspiring aviators.

Plenty of annoyances, difficulties, and delays were still to be faced. When they reached their camp near Kill Devil Hill, the Wrights found that a storm had blown it from its foundation posts. They repaired the shed and also built a new one. With two sheds they had enough space for housing both the 1902 glider and the power machine, and also for a better workshop.

Plenty of hassles, challenges, and setbacks were still ahead. When they arrived at their camp near Kill Devil Hill, the Wrights discovered that a storm had blown it off its foundation posts. They fixed the shed and also built a new one. With two sheds, they had enough room to store both the 1902 glider and the engine, as well as for a better workshop.

Just as the new building was nearing completion, the Kitty Hawk region had one of the worst storms in years. It came without warning, soon blowing forty miles an hour, and increased during the night until the next day the wind was more than seventy-five miles an hour. Orville risked climbing to the roof to nail down some of the more exposed parts. But by the time he got to the roof edge, the wind had blown his coat about him in a manner to pinion his arms and leave him helpless. Wilbur rushed to his assistance and held down his coat, but the wind was so strong that it was almost impossible to swing a hammer accurately enough to hit a nail.

Just as the new building was almost finished, the Kitty Hawk area experienced one of the worst storms in years. It came out of nowhere, quickly reaching speeds of forty miles an hour, and intensified overnight until the next day when the wind exceeded seventy-five miles an hour. Orville took the risk of climbing up to the roof to secure some of the more exposed sections. But by the time he reached the edge of the roof, the wind had whipped his coat around him in such a way that it pinned his arms and rendered him helpless. Wilbur rushed to help him and held down his coat, but the wind was so strong that it was nearly impossible to swing a hammer accurately enough to hit a nail.

Three weeks were needed for assembling the new machine. From time to time, also, they took out the 1902 glider, still in fairly good condition in the shed92 where they had left it, and got practice. After the first few trials each brother was able to make a new world’s record by gliding for more than a minute.

Three weeks were needed to put together the new machine. Occasionally, they also took out the 1902 glider, which was still in pretty good shape in the shed92 where they had left it, and practiced. After the first few attempts, each brother managed to set a new world record by gliding for over a minute.

It was hoped to have the power machine ready for its first trial early in November. But at the first run of the motor on the completed machine, an unexpected strain from back-firing twisted one of the propeller shafts and tore loose the cross-arm to which the propeller was fastened. Both shafts were then sent back to the bicycle shop at Dayton to be made stronger. Dr. Spratt had arrived on October 23 to witness tests of the new machine, but the weather had become so wintry that he started home on November 5, taking with him as far as Norfolk the shafts for shipment to Dayton.

It was hoped to have the power machine ready for its first trial early in November. However, during the first run of the motor on the completed machine, an unexpected strain from back-firing twisted one of the propeller shafts and tore loose the cross-arm holding the propeller. Both shafts were then sent back to the bike shop in Dayton to be reinforced. Dr. Spratt arrived on October 23 to observe tests of the new machine, but the weather turned so cold that he headed home on November 5, taking the shafts with him as far as Norfolk for shipping to Dayton.

Octave Chanute came, on invitation, the next day, but he too found it difficult to be comfortable with the weather increasingly wintry and he stayed less than a week. Before leaving camp, Chanute had unintentionally given them something else to worry about. He had remarked that at least twenty per cent usually must be allowed in chain transmission for loss in power. As the Wrights had allowed only five per cent, they felt considerable alarm.

Octave Chanute arrived, as invited, the next day, but he also struggled to be comfortable with the increasingly wintry weather and stayed for less than a week. Before leaving camp, Chanute inadvertently added to their worries. He mentioned that at least twenty percent is typically needed in chain transmission to account for power loss. Since the Wrights had only allowed for five percent, they felt quite alarmed.

Since Chanute was a capable and famous engineer, it seemed prudent to find out whose estimates were more nearly correct. After Chanute had gone, the brothers suspended one of the drive chains over a sprocket and hung a bag of sand at each end of the chain. By measuring the amount of weight on one side needed to lift that on the other, they calculated the loss in transmission.93 As nearly as they could tell, this loss was even less than the five per cent they had estimated.

Since Chanute was a skilled and well-known engineer, it made sense to figure out whose estimates were closer to the truth. After Chanute left, the brothers hung one of the drive chains over a sprocket and attached a bag of sand to each end of the chain. By measuring the weight needed on one side to lift the weight on the other, they calculated the transmission loss.93 As far as they could tell, this loss was even less than the five percent they had originally estimated.

The shafts, made of larger and heavier tubing, arrived from Dayton on November 20. When they were tested again, a new difficulty appeared. The sprockets, which were screwed to the shafts and locked with nuts of opposite thread, kept coming loose. This was a small problem, and yet the brothers did not at once see any way to solve it. They went to bed discouraged. The next day, however, they tried, as they often did, something they had learned in the bicycle business. They had found a great variety of uses for the kind of cement intended for fastening tires to rims. Once they had used it successfully in fastening the hands of a stop-watch that several watchsmiths had said was beyond repair. Why not try tire cement on those sprockets? They heated the propeller shafts and sprockets, poured melted cement into the threads and screwed them together. There were no more loose sprockets.

The shafts, made of larger and heavier tubing, arrived from Dayton on November 20. When they were tested again, a new problem appeared. The sprockets, which were attached to the shafts and secured with nuts of opposite threads, kept coming loose. This was a minor issue, but the brothers didn’t immediately see a solution. They went to bed feeling discouraged. The next day, however, they decided to try something they had learned in the bicycle business. They had discovered many uses for the type of cement meant for attaching tires to rims. Once, they had successfully used it to fix the hands of a stopwatch that several watchmakers claimed was beyond repair. Why not try tire cement on those sprockets? They heated the propeller shafts and sprockets, poured melted cement into the threads, and screwed them together. There were no more loose sprockets.

Just as the machine was ready for test, bad weather set in. There was rain or snow for several days and a wind of twenty-five to thirty miles an hour from the north. But while being delayed by the weather the Wrights were not idle. They busied themselves contriving a mechanism to measure automatically the duration of a flight from the time the machine started to move forward to the time it stopped, the distance traveled through the air in that time, and the number of revolutions made by the motor and propeller. A stop-watch took the time; an anemometer measured the air traveled through; and a counter took the number94 of revolutions made by the motor. The watch, anemometer, and revolution counter were all automatically started and stopped simultaneously.

Just as the machine was ready for testing, bad weather hit. It rained or snowed for several days, with winds blowing from the north at twenty-five to thirty miles an hour. However, while the weather delayed them, the Wrights didn’t sit around doing nothing. They occupied themselves by designing a mechanism to automatically measure the duration of a flight from when the machine started moving until it stopped, the distance traveled through the air during that time, and the number of revolutions made by the motor and propeller. A stopwatch tracked the time, an anemometer measured the air traveled, and a counter recorded the number of revolutions made by the motor. The stopwatch, anemometer, and revolution counter were all set to start and stop automatically at the same time.94

During this time, the Wrights occupied themselves also in making tests of the strength of the wings, as well as many satisfactory tests of the engine. During a test of the engine, on November 28, they discovered that one of the recently strengthened tubular shafts had developed a flaw and cracked!

During this time, the Wrights kept themselves busy testing the strength of the wings and conducting many successful tests of the engine. During an engine test on November 28, they discovered that one of the recently reinforced tubular shafts had developed a flaw and cracked!

With winter almost upon them, there was no time to trust to express service in getting the shafts to Dayton. Orville decided he would go there at once. Instead of tubular shafts, they would use solid tool steel, necessary, it seemed, to take up the shock of premature or missed explosions of the engine.

With winter nearly here, they couldn't count on express delivery to get the shafts to Dayton. Orville decided to go there right away. Instead of tubular shafts, they would use solid tool steel, which seemed essential to handle the shock from any premature or missed explosions of the engine.

Not until Friday, December 11, did Orville get back to camp. (En route, he had read in a newspaper of the last unsuccessful attempt to fly the Langley machine over the Potomac at Washington.)

Not until Friday, December 11, did Orville get back to camp. (On the way, he had read in a newspaper about the last unsuccessful attempt to fly the Langley machine over the Potomac in Washington.)

It didn’t take long to install the new propeller shafts and the next afternoon, Saturday, the machine was again ready for trial. But the wind was so light that a start could not have been made from the level ground with a run of only sixty feet permitted by the monorail track to be used. Nor was there enough time before dark to take the machine to one of the near-by hills, where, by placing the track on the steep incline, enough speed could be promptly attained for starting in calm air.

It didn’t take long to install the new propeller shafts, and the next afternoon, Saturday, the machine was ready for a test again. But the wind was so light that it couldn’t be started from the level ground with only sixty feet allowed by the monorail track. There also wasn’t enough time before dark to take the machine to one of the nearby hills, where setting the track on a steep incline would have given enough speed to take off in calm air.

All day Sunday the Wrights just sat at the camp and read, hoping for suitable weather the next day. They were now particularly eager to avoid delay because of95 their boyish craving to be at home by Christmas. If there should be a spell of bad wintry weather they might have to stay at Kitty Hawk for another two or three weeks.

All day Sunday, the Wrights just sat at the camp and read, hoping for good weather the next day. They were really eager to avoid any delays because of their youthful desire to be home by Christmas. If bad winter weather hit, they might have to stay at Kitty Hawk for another two or three weeks.

Monday, December 14, dawned beautifully clear, but cold, and there was not enough wind to permit a start from level ground near the camp. The Wrights therefore decided to attempt a flight from the side of Kill Devil Hill. With a relatively light wind it should be all the easier to handle the machine. The pilot, whichever one of them it should be, ought to be able not only to fly successfully but to go on down far beyond the Kitty Hawk life-saving station, nearly five miles away, before landing.

Monday, December 14, started off beautifully clear but cold, and there wasn't enough wind to take off from flat ground near the camp. The Wrights decided to try flying from the side of Kill Devil Hill. With a lighter wind, it should be easier to control the machine. The pilot, whoever that would be, should not only be able to fly successfully but also glide down far beyond the Kitty Hawk life-saving station, nearly five miles away, before landing.

Contrary to reports of secretiveness, the Wrights, naturally desiring witnesses, had extended a general invitation to people living within five or six miles to come and see their first attempt at flight. But it was impossible for them to send word or give a signal as to the exact time the attempt would be made. They had arranged, however, to put a signal on one of the sheds that could be seen from the Kill Devil Life-Saving Station only a little more than a mile away. Members of the life-saving crew were on the lookout for the signal. Soon after the signal was hung against the wall of the shed, the Wrights were joined by John T. Daniels, Robert Westcott, Thomas Beacham, W. S. Dough, and “Uncle Benny” O’Neal. All helped to get the machine to the place selected, a quarter of a mile away, on the hillside. It would not have been easy to drag the 750-pound machine that distance and the Wrights used a96 characteristic bit of ingenuity. They set the machine on the monorail track they were going to use for the take-off, slid it along to the end of the sixty-foot wooden rail, then took up a rear section of the track and added it to the front end. By thus re-laying the track over and over, they were able to have the machine run on wheels all the way. The sled-like skids that were the landing gear of the machine rested on a truck—a plank about six feet long, laid across a much smaller piece of wood to which were attached two small wheels, one in front of the other. Each was kept on the track by two vertical guides. These little wheels had ball-bearings. They were modified hubs from wheels of a bicycle. The rail itself was two by four inches, set on edge, with the upper surface covered by a thin strip of metal.

Contrary to claims of being secretive, the Wrights, who naturally wanted witnesses, had sent out a general invitation to people living within five or six miles to come and watch their first attempt at flight. However, they couldn’t communicate the exact time of the attempt. They did set up a signal on one of the sheds that could be seen from the Kill Devil Life-Saving Station just over a mile away. Members of the life-saving crew were on the lookout for this signal. Soon after the signal was hung on the shed wall, the Wrights were joined by John T. Daniels, Robert Westcott, Thomas Beacham, W. S. Dough, and “Uncle Benny” O’Neal. They all helped move the machine to the selected spot, a quarter of a mile away, on the hillside. Moving the 750-pound machine that distance wouldn’t have been easy, so the Wrights used a typical bit of ingenuity. They placed the machine on the monorail track intended for take-off, slid it to the end of the sixty-foot wooden rail, and then picked up a rear section of the track and moved it to the front end. By continually re-laying the track, they managed to have the machine roll on wheels all the way. The sled-like skids, which served as the machine's landing gear, rested on a truck—a plank about six feet long laid across a much smaller piece of wood with two small wheels attached, one in front of the other. Both wheels were kept on the track by two vertical guides. These little wheels had ball bearings and were modified hubs from bicycle wheels. The rail itself was two by four inches, set on its edge, with the top covered by a thin strip of metal.

As soon as they reached the hill, the Wrights prepared for the test. Each was eager for the chance to make the first trial, and they tossed a coin to determine which of them it should be. Wilbur won the toss.

As soon as they got to the hill, the Wrights got ready for the test. Each of them was excited for the chance to make the first attempt, so they flipped a coin to see who would go first. Wilbur won the flip.

After the machine had been fastened to the track by wire to prevent its moving until released by the operator, one of the Wrights started the motor and let it run for a few minutes to make sure it was working properly. Then Wilbur took his place on the machine. Two small boys, with a dog, who had come to see what was going on, were scared away by the noise of the motor.

After the machine was secured to the track with a wire to keep it from moving until the operator released it, one of the Wright brothers started the motor and let it run for a few minutes to ensure it was functioning properly. Then Wilbur took his position on the machine. Two little boys, along with a dog, who had come to see what was happening, were scared away by the noise of the motor.

Here is Orville Wright’s own account3 of what then happened:

Here is Orville Wright’s own account3 of what happened next:

I took a position at one of the wings, intending to help balance the machine as it ran down the track. But when97 the restraining wire was slipped, the machine started off so quickly I could stay with it only a few feet. After a 35- to 40-foot run, it lifted from the rail.

I took a position at one of the sides, planning to help balance the machine as it went down the track. But when97 the restraining wire was released, the machine took off so fast that I could only keep up with it for a few feet. After a run of about 35 to 40 feet, it lifted off the rail.

But it was allowed to turn up too much. It climbed a few feet, stalled, and then settled to the ground near the foot of the hill, 105 feet below. My stop-watch showed that it had been in the air just 3½ seconds. In landing, the left wing touched first. The machine swung around, dug the skids into the sand and broke one of them. Several other parts were also broken, but the damage to the machine was not serious. While the tests had shown nothing as to whether the power of the motor was sufficient to keep the machine up, since the landing was made many feet below the starting point, the experiment had demonstrated that the method adopted for launching the machine was a safe and practical one. On the whole, we were much pleased.

But it was allowed to rise too much. It went up a few feet, stalled, and then settled down near the foot of the hill, 105 feet below. My stopwatch showed it had been airborne for just 3½ seconds. During landing, the left wing touched first. The machine swung around, dug the skids into the sand, and broke one of them. Several other parts were also damaged, but the overall damage to the machine wasn't serious. While the tests hadn't confirmed whether the motor's power was enough to keep the machine in the air, since the landing occurred many feet below the starting point, the experiment showed that the method used for launching the machine was safe and practical. Overall, we were quite pleased.

Two days were consumed in making repairs, and the machine was not ready again till late in the afternoon of the 16th. While we had it out on the track in front of the building, making the final adjustments, a stranger came along. After looking at the machine a few seconds he inquired what it was. When we told him it was a flying-machine he asked whether we intended to fly it. We said we did, as soon as we had a suitable wind. He looked at it several minutes longer and then, wishing to be courteous, remarked that it looked as if it would fly, if it had a “suitable wind.” We were much amused, for, no doubt, he had in mind the recent 75-mile gale when he repeated our words, “a suitable wind”!

Two days went by as we made repairs, and the machine wasn’t ready again until late in the afternoon of the 16th. While we had it out on the track in front of the building, making the final adjustments, a stranger walked by. After looking at the machine for a few seconds, he asked what it was. When we told him it was a flying machine, he asked if we planned to fly it. We said we did, as soon as we had a suitable wind. He looked at it for a few more minutes, and then, wanting to be polite, he commented that it looked like it could fly, if it had a “suitable wind.” We found it quite funny, since he was probably thinking of the recent 75-mile gale when he repeated our words, “a suitable wind”!

During the night of December 16th a strong cold wind blew from the north. When we arose on the morning of the 17th, the puddles of water, which had been standing about the camp since the recent rains, were covered with ice. The wind had a velocity of 10 to 12 meters per second (22 to 27 miles an hour). We thought it would die down98 before long, and so remained indoors the early part of the morning. But when ten o’clock arrived, and the wind was as brisk as ever, we decided that we had better get the machine out and attempt a flight. We hung out the signal for the men of the Life Saving Station. We thought that by facing the flyer into a strong wind, there ought to be no trouble in launching it from the level ground about camp. We realized the difficulties of flying in so high a wind, but estimated that the added dangers in flight would be partly compensated for by the slower speed in landing.

During the night of December 16th, a strong cold wind blew in from the north. When we woke up on the morning of the 17th, the puddles that had been collecting in the camp from the recent rains were frozen over with ice. The wind was blowing at 10 to 12 meters per second (22 to 27 miles per hour). We thought it would calm down soon, so we stayed indoors for the early part of the morning. But when ten o’clock came around and the wind was still as strong as ever, we decided it was best to get the machine out and try for a flight. We sent up the signal for the men at the Life Saving Station. We figured that by pointing the flyer into the strong wind, we shouldn't have any issues launching it from the flat ground around the camp. We understood the challenges of flying in such high winds, but we believed that the increased risks during flight would be somewhat offset by the slower speed when landing.

We laid the track on a smooth stretch of ground about one hundred feet west of the new building. The biting cold wind made work difficult, and we had to warm up frequently in our living room, where we had a good fire in an improvised stove made of a large carbide can. By the time all was ready, J. T. Daniels, W. S. Dough and A. D. Etheridge, members of the Kill Devil Life-Saving Station; W. C. Brinkley of Manteo; and Johnny Moore, a boy from Nag’s Head, had arrived.

We laid the track on a flat section of ground about a hundred feet west of the new building. The biting cold wind made it hard to work, so we had to warm up often in our living room, where we had a nice fire going in a makeshift stove made from a large carbide can. By the time everything was ready, J. T. Daniels, W. S. Dough, and A. D. Etheridge from the Kill Devil Life-Saving Station; W. C. Brinkley from Manteo; and Johnny Moore, a kid from Nag’s Head, had shown up.

We had a “Richard” hand anemometer with which we measured the velocity of the wind. Measurements made just before starting the first flight showed velocities of 11 to 12 meters per second, or 24 to 27 miles per hour. Measurements made just before the last flight gave between 9 and 10 meters per second. One made just afterward showed a little over 8 meters. The records of the Government Weather Bureau at Kitty Hawk gave the velocity of the wind between the hours of 10:30 and 12 o’clock, the time during which the four flights were made, as averaging 27 miles at the time of the first flight and 24 miles at the time of the last.

We had a “Richard” hand anemometer that we used to measure the wind speed. Measurements taken right before the first flight showed wind speeds of 11 to 12 meters per second, or 24 to 27 miles per hour. Measurements taken just before the last flight ranged from 9 to 10 meters per second. One taken just after that showed a little over 8 meters. Records from the Government Weather Bureau at Kitty Hawk indicated that the wind speed between 10:30 and 12:00, during which the four flights occurred, averaged 27 miles per hour at the time of the first flight and 24 miles per hour at the time of the last.

With all the knowledge and skill acquired in thousands of flights in the last ten years, I would hardly think today of making my first flight on a strange machine in a twenty-seven-mile wind, even if I knew that the machine had already99 been flown and was safe. After these years of experience, I look with amazement upon our audacity in attempting flights with a new and untried machine under such circumstances. Yet faith in our calculations and the design of the first machine, based upon our tables of air pressures, obtained by months of careful laboratory work, and confidence in our system of control developed by three years of actual experiences in balancing gliders in the air, had convinced us that the machine was capable of lifting and maintaining itself in the air, and that, with a little practice, it could be safely flown.

With all the knowledge and skills I’ve gained from thousands of flights over the last ten years, I can't imagine making my first flight on an unfamiliar aircraft in a twenty-seven-mile wind, even if I knew the plane had already been flown and was safe. After all these years of experience, I’m amazed at our boldness in trying to fly a new and untested machine under those conditions. But our faith in our calculations and the design of the first aircraft, grounded in our tables of air pressures compiled from months of careful lab work, along with confidence in our control system developed through three years of actual experience balancing gliders in the air, convinced us that the aircraft could take off and stay in the air, and that with a bit of practice, it could be flown safely.

Wilbur having used his turn in the unsuccessful attempt on the 14th, the right to the first trial now belonged to me. After running the motor a few minutes to heat it up, I released the wire that held the machine to the track, and the machine started forward into the wind. Wilbur ran at the side of the machine, holding the wing to balance it on the track. Unlike the start on the 14th, made in a calm, the machine, facing a 27-mile wind, started very slowly. Wilbur was able to stay with it till it lifted from the track after a forty-foot run. One of the Life Saving men snapped the camera for us, taking a picture just as the machine had reached the end of the track and had risen to a height of about two feet.4 The slow forward speed of the machine over the ground is clearly shown in the picture by Wilbur’s attitude. He stayed along beside the machine without any effort.

Wilbur had taken his turn during the unsuccessful attempt on the 14th, so now it was my turn for the first trial. After running the motor for a few minutes to warm it up, I released the wire that held the machine to the track, and it moved forward into the wind. Wilbur ran alongside the machine, holding the wing to keep it balanced on the track. This time, unlike the calm start on the 14th, the machine faced a 27-mile-per-hour wind and started off very slowly. Wilbur managed to keep up with it until it lifted off the track after a forty-foot run. One of the Life Saving crew members took a picture of us just as the machine reached the end of the track and rose to about two feet in the air.4 The machine's slow speed over the ground is clearly visible in the picture by how effortlessly Wilbur stayed beside it.

The course of the flight up and down was exceedingly erratic, partly due to the irregularity of the air and partly to lack of experience in handling this machine. The control of the front rudder was difficult on account of its being balanced too near the center. This gave it a tendency to turn itself when started, so that it turned too far on one100 side and then too far on the other. As a result, the machine would rise suddenly to about ten feet, and then as suddenly dart for the ground. A sudden dart when a little over a hundred feet from the end of the track, or a little over 120 feet from the point at which it rose into the air, ended the flight. As the velocity of the wind was over 35 feet per second and the speed of the machine over the ground against this wind ten feet per second, the speed of the machine relative to the air was over 45 feet per second, and the length of the flight was equivalent to a flight of 540 feet made in calm air.

The flight path was extremely unpredictable, mainly due to the inconsistent air conditions and the pilot's lack of experience with this aircraft. Controlling the front rudder was challenging because it was balanced too close to the center. This made it prone to oversteering, causing it to tilt too far on one side and then the other. As a result, the aircraft would suddenly rise to about ten feet and then plummet back down just as quickly. A sudden drop when just over a hundred feet from the end of the track, or a bit more than 120 feet from where it first took off, brought the flight to an end. With wind speeds exceeding 35 feet per second and the machine moving at ten feet per second against the wind, its speed relative to the air was over 45 feet per second, and the distance covered was akin to a 540-foot flight in calm conditions.100

This flight lasted only 12 seconds, but it was nevertheless the first in the history of the world in which a machine carrying a man had raised itself by its own power into the air in full flight, had sailed forward without reduction of speed, and had finally landed at a point as high as that from which it started.

This flight lasted just 12 seconds, but it was still the first in history where a machine carrying a person lifted itself into the air under its own power, flew forward without slowing down, and then landed at the same height from which it took off.

With the assistance of our visitors we carried the machine back to the track and prepared for another flight. The wind, however, had chilled us all through, so that before attempting a second flight, we all went to the building again to warm up. Johnny Moore, seeing under the table a box filled with eggs, asked one of the Station men where we got so many of them. The people of the neighborhood eke out a bare existence by catching fish during the short fishing season, and their supplies of other articles of food are limited. He probably never had seen so many eggs at one time in his whole life.

With the help of our visitors, we brought the machine back to the track and got ready for another flight. However, the wind had left us all feeling cold, so before trying a second flight, we headed back to the building to warm up. Johnny Moore noticed a box full of eggs under the table and asked one of the Station guys where we got so many. The locals barely get by by fishing during the short season, and their other food supplies are limited. He probably had never seen that many eggs at once in his entire life.

The one addressed jokingly asked him whether he hadn’t noticed the small hen running about the outside of the building. “That chicken lays eight to ten eggs a day!” Moore, having just seen a piece of machinery lift itself from the ground and fly, a thing at that time considered as impossible as perpetual motion, was ready to believe nearly anything. But after going out and having a good look at101 the wonderful fowl, he returned with the remark, “It’s only a common-looking chicken!”

The person being joked with asked him if he hadn’t seen the little chicken running around outside the building. “That chicken lays eight to ten eggs a day!” Moore, who had just witnessed a machine lift itself off the ground and fly—something that at the time seemed as impossible as perpetual motion—was ready to believe almost anything. However, after stepping outside to take a good look at101 the amazing bird, he came back and said, “It’s just an ordinary-looking chicken!”

At twenty minutes after eleven Wilbur started on the second flight. The course of this flight was much like that of the first, very much up and down. The speed over the ground was somewhat faster than that of the first flight, due to the lesser wind. The duration of the flight was less than a second longer than the first, but the distance covered was about seventy-five feet greater.

At twenty minutes past eleven, Wilbur took off for the second flight. This flight's path was quite similar to the first, with lots of ups and downs. He was flying a bit faster this time because there was less wind. The flight lasted just a second longer than the first, but he covered about seventy-five feet more distance.

Twenty minutes later, the third flight started. This one was steadier than the first one an hour before. I was proceeding along pretty well when a sudden gust from the right lifted the machine up twelve to fifteen feet and turned it up sidewise in an alarming manner. It began a lively sidling off to the left. I warped the wings to try to recover the lateral balance and at the same time pointed the machine down to reach the ground as quickly as possible. The lateral control was more effective than I had imagined and before I reached the ground the right wing was lower than the left and struck first. The time of this flight was fifteen seconds and the distance over the ground a little over 200 feet.

Twenty minutes later, the third flight started. This one was smoother than the first one an hour earlier. I was making good progress when a sudden gust from the right lifted the plane up twelve to fifteen feet and turned it sideways in a frightening way. It began drifting off to the left. I adjusted the wings to try to regain lateral balance and at the same time pointed the plane down to reach the ground as quickly as possible. The lateral control worked better than I expected, and before I hit the ground, the right wing was lower than the left and touched down first. This flight lasted fifteen seconds and covered a little over 200 feet.

Wilbur started the fourth and last flight at just 12 o’clock. The first few hundred feet were up and down, as before, but by the time three hundred feet had been covered, the machine was under much better control. The course for the next four or five hundred feet had but little undulation. However, when out about eight hundred feet the machine began pitching again, and, in one of its darts downward, struck the ground. The distance over the ground was measured and found to be 852 feet; the time of the flight 59 seconds. The frame supporting the front rudder was badly broken, but the main part of the machine was not injured at all. We estimated that the machine could be put in condition for flight again in a day or two.

Wilbur started the fourth and final flight at exactly 12:00 PM. The first few hundred feet went up and down, just like before, but by the time they had covered three hundred feet, the machine was much better under control. The next four or five hundred feet had only a little variation in altitude. However, after about eight hundred feet, the machine started pitching again, and during one of its descents, it hit the ground. The distance traveled was measured and found to be 852 feet, with the flight lasting 59 seconds. The frame supporting the front rudder was badly damaged, but the main part of the machine was unharmed. We estimated that it could be repaired for flight again in a day or two.

While we were standing about discussing this last flight,102 a sudden strong gust of wind struck the machine and began to turn it over. Everybody made a rush for it. Wilbur, who was at one end, seized it in front. Mr. Daniels and I, who were behind, tried to stop it by holding to the rear uprights.

While we were standing around talking about the last flight,102 a sudden strong gust of wind hit the machine and started to tip it over. Everyone rushed to help. Wilbur, who was at one end, grabbed the front. Mr. Daniels and I, who were behind, tried to hold it steady by gripping the rear supports.

All our efforts were in vain. The machine rolled over and over. Daniels, who had retained his grip, was carried along with it, and was thrown about, head over heels, inside of the machine. Fortunately he was not seriously injured, though badly bruised in falling about against the motor, chain guides, etc. The ribs in the surfaces of the machine were broken, the motor injured and the chain guides badly bent, so that all possibility of further flights with it for that year were at an end.

All our efforts were wasted. The machine rolled over and over. Daniels, who managed to hold on, got tossed around inside the machine, flipping over and over. Luckily, he wasn't seriously hurt, but he did end up pretty bruised from crashing against the motor, chain guides, and so on. The ribs in the machine's surfaces were broken, the motor was damaged, and the chain guides were badly bent, meaning there was no chance of taking any more flights with it that year.

It is unlikely that any of the five spectators who had seen these flights sensed their scientific importance. But some of them felt interested, from one point of view, because they would have the laugh on a number of natives thereabouts who had insisted that these Wright brothers must be a pair of harmless cranks. A common argument had been: “God didn’t intend man to fly. If he did, he would have given him a set of wings.”

It’s unlikely that any of the five spectators who witnessed these flights recognized their scientific significance. However, some found it interesting because they would have the upper hand over several locals who claimed that the Wright brothers were just a couple of harmless nuts. A common argument had been, “God didn’t mean for man to fly. If He did, He would have given him wings.”

It was the regret of his life to the Wrights’ friend, “Bill” Tate, that he missed witnessing that first flight. He had decided that “no one but a crazy man would attempt to fly in such a wind,” and made no effort to be there.

It was the biggest regret of his life for the Wrights’ friend, “Bill” Tate, that he missed seeing that first flight. He thought that “no one but a crazy person would try to fly in such a wind,” and he didn't bother to show up.

After preparing and eating their lunch, and then washing their dishes, Wilbur and Orville set out, about two o’clock that afternoon, to walk over to the Kitty Hawk weather station, four or five miles away, to send a telegram to their father. It must have been about three o’clock when they reached the station. So few telegrams103 were sent from this locality that no regular commercial office existed and it was permitted to send them over this government wire as far as Norfolk where they would be relayed by phone from the weather bureau to the office of one of the telegraph companies.

After making and eating their lunch, and then cleaning up their dishes, Wilbur and Orville headed out around two o’clock that afternoon to walk to the Kitty Hawk weather station, about four or five miles away, to send a telegram to their dad. They probably arrived at the station around three o’clock. Since so few telegrams were sent from this area, there wasn’t a regular commercial office, so they could send them over this government line to Norfolk, where the weather bureau would relay it by phone to one of the telegraph companies.

Orville wrote out the following message to their father: “Success four flights Thursday morning all against twenty-one-mile wind started from level with engine power alone average speed through air thirty-one miles longest 59 seconds inform press home Christmas. Orville Wright.”

Orville wrote the following message to their father: “Four successful flights on Thursday morning, all into a twenty-one-mile wind, started from a level position with engine power alone, average speed through the air was thirty-one miles, longest flight was 59 seconds. Please inform the press at home for Christmas. Orville Wright.”

What Orville meant when he wrote “against twenty-one-mile wind” was that the wind was at least twenty-one miles an hour during each of the flights. At the time of the first flight it was, as already noted, between twenty-four and twenty-seven miles an hour—probably about twenty-six miles.

What Orville meant when he wrote “against twenty-one-mile wind” was that the wind was blowing at least twenty-one miles per hour during each of the flights. During the first flight, it was, as noted earlier, between twenty-four and twenty-seven miles per hour—probably around twenty-six miles.

After handing the message to Joseph J. Dosher, the weather bureau operator, Orville joined Wilbur over in a corner of the room to examine the record on an instrument that recorded the wind velocity.

After giving the message to Joseph J. Dosher, the weather bureau operator, Orville joined Wilbur in a corner of the room to check the reading on a device that measured wind speed.

Dosher got an almost instantaneous connection with Norfolk, and while the Wrights were still looking at the wind record, he said:

Dosher made a nearly immediate connection with Norfolk, and while the Wrights were still examining the wind record, he said:

“The operator in Norfolk wants to know if it is all right to give the news to a reporter friend.”

“The operator in Norfolk wants to know if it's okay to share the news with a reporter friend.”

But the Wrights replied: Absolutely no! They preferred to have the first news of the event come from Dayton.

But the Wrights replied: Absolutely not! They wanted the first news of the event to come from Dayton.

Dosher clicked out the refusal.

Dosher clicked on the refusal.

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The operator at Norfolk, however, did not heed the warning.

The operator at Norfolk, however, didn’t pay attention to the warning.

When they left the weather bureau after sending their message, the Wrights went over to the Kitty Hawk life-saving station, a few steps away, and chatted with members of the crew there. Captain S. J. Payne, in charge of the station, declared that he had seen one of the flights with the aid of a pair of binoculars.

When they left the weather bureau after sending their message, the Wright brothers headed over to the Kitty Hawk life-saving station, which was just a short walk away, and talked with the crew members there. Captain S. J. Payne, who was in charge of the station, said that he had seen one of the flights with the help of a pair of binoculars.

Then the Wrights walked to the post office at Kitty Hawk; and before returning to camp they stopped for a farewell visit at the home of Captain Hobbs, who had often done hauling and other work for them.

Then the Wrights walked to the post office at Kitty Hawk; and before heading back to camp, they made a stop for a farewell visit at Captain Hobbs' house, who had often helped them with hauling and other tasks.

Meanwhile, the telegraph operator at Norfolk, disregarding the Wrights’ adverse response to his request, had promptly gone ahead and given a tip about the flights to a young friend, H. P. Moore, of the Norfolk Virginian-Pilot. Moore was connected with the circulation department of the paper but was breaking in as a reporter and was in the habit of calling at the weather bureau. He made a desperate effort to reach by telephone over the government line someone at Kitty Hawk or elsewhere along the coast who could furnish details about what the flying-machine looked like, and about this Mr. Wright who was supposed to have operated it. Whatever information he got did not come from eyewitnesses of the flights, or from anyone who had ever seen the machine, and the account published the next morning was about ninety-nine per cent inaccurate. It described a flight of three miles by Wilbur and told of Orville then running about yelling “Eureka.” The machine had one six-blade propeller beneath105 it, to elevate it, so the story ran, and another propeller at the rear to shove it forward.

Meanwhile, the telegraph operator in Norfolk, ignoring the Wrights’ negative response to his request, went ahead and tipped off a young friend, H. P. Moore, at the Norfolk Virginian-Pilot. Moore worked in the circulation department of the paper but was starting out as a reporter and frequently visited the weather bureau. He desperately tried to reach someone at Kitty Hawk or along the coast by phone who could provide details about what the flying machine looked like and about Mr. Wright, who was said to have operated it. Any information he received didn't come from eyewitnesses of the flights or anyone who had actually seen the machine, and the account published the next morning was about ninety-nine percent inaccurate. It described a flight of three miles by Wilbur and mentioned Orville running around yelling “Eureka.” The machine supposedly had one six-blade propeller underneath to lift it and another propeller at the rear to push it forward.

“Very little can be learned here about the Wrights,” the story said. “They are supposed by the natives of Kitty Hawk to be people of means and are always well dressed.”

“Not much can be learned here about the Wrights,” the story said. “The locals in Kitty Hawk believe they are wealthy and always dress nicely.”

(When Moore met Orville, years later, and asked him what he thought of the account, Orville good-naturedly replied: “It was an amazing piece of work. Though ninety-nine per cent wrong, it did contain one fact that was correct. There had been a flight.” Then Moore wrote that Orville had corroborated his story.)

(When Moore met Orville years later and asked him what he thought of the account, Orville jokingly replied, “It was an incredible piece of work. Although ninety-nine percent was wrong, it did have one fact that was right. There had been a flight.” Then Moore wrote that Orville had confirmed his story.)

One must give the Virginian-Pilot editors credit for treating the news as important. The headline over the flight story the next morning extended clear across the top of the first page.

One has to give the Virginian-Pilot editors credit for treating the news seriously. The headline over the flight story the next morning stretched all the way across the top of the first page.

Moore sent brief “queries,” outlining the story, to twenty-one other newspapers over the country, including several in Ohio, one of them the Dayton Journal. But nearly all the telegraph editors resented having a correspondent suggest that a human being could fly by machinery. Of the twenty-one newspapers to whom it was offered, only five ordered the story. They were the New York American, the Washington (D.C.) Post, the Chicago Record-Herald, the Philadelphia Record, and the Cincinnati Enquirer. But not all five papers that received the story published it the next morning. The Chicago Record-Herald and the Washington Post delayed using it, and the Philadelphia Record did not print it at all. Thus only three newspapers in the United States had a report of the great event at Kitty Hawk the106 next morning. The Cincinnati Enquirer was the only one besides the Virginian-Pilot that gave space to the account on the front page.

Moore sent short “queries,” summarizing the story, to twenty-one newspapers across the country, including several in Ohio, one of which was the Dayton Journal. However, almost all the telegraph editors were upset by the idea that a person could fly using machinery. Of the twenty-one newspapers he approached, only five decided to run the story. They were the New York American, the Washington (D.C.) Post, the Chicago Record-Herald, the Philadelphia Record, and the Cincinnati Enquirer. But not all five newspapers that received the story published it the next morning. The Chicago Record-Herald and the Washington Post postponed using it, and the Philadelphia Record didn't print it at all. As a result, only three newspapers in the United States reported on the significant event at Kitty Hawk the 106 following morning. The Cincinnati Enquirer was the only one besides the Virginian-Pilot that featured the account on the front page.

As the Associated Press is a co-operative news-gathering agency and the Virginian-Pilot was a member, the story was available to the AP at Norfolk, but the AP was not yet interested in it.

As the Associated Press is a cooperative news-gathering agency and the Virginian-Pilot was a member, the story was accessible to the AP in Norfolk, but the AP wasn't interested in it yet.

One might have thought the news would especially interest the Dayton Journal; but Frank Tunison, the telegraph editor there (who also handled outgoing news for the Associated Press) was a man who took pride in not being easily fooled, and he paid no attention to the query from Norfolk.

One might think the news would be of particular interest to the Dayton Journal; however, Frank Tunison, the telegraph editor there (who also managed outgoing news for the Associated Press), was a guy who took pride in not being easily deceived, and he ignored the inquiry from Norfolk.

Orville’s telegram to his father did not reach Dayton until 5:25 that evening. In transmission, errors had got into the message; fifty-nine seconds had become fifty-seven, and the sender’s name was spelled “Orevelle.”

Orville’s telegram to his father didn’t reach Dayton until 5:25 that evening. During transmission, errors crept into the message; fifty-nine seconds turned into fifty-seven, and the sender’s name was spelled “Orevelle.”

Katharine Wright immediately sent a message to Octave Chanute that the “boys” had reported four successful flights. Bishop Wright asked his son Lorin to prepare a brief statement with a copy of the message and give it to the Associated Press. After he had finished his dinner, Lorin went to the office of the Journal and inquired if the Associated Press representative was there. He was referred to Frank Tunison. Whether Tunison had already received the query from Moore at Norfolk is not certain. But he seemed annoyed over being expected to accept such a tale.

Katharine Wright quickly sent a message to Octave Chanute that the “boys” had reported four successful flights. Bishop Wright asked his son Lorin to prepare a short statement including a copy of the message and deliver it to the Associated Press. After finishing his dinner, Lorin went to the office of the Journal and asked if the Associated Press representative was there. He was directed to Frank Tunison. It’s unclear if Tunison had already received a query from Moore in Norfolk, but he appeared irritated at the thought of having to believe such a story.

Without looking up from his work, he yawned and said to Lorin:

Without looking up from his work, he yawned and said to Lorin:

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“Fifty-seven seconds, hey? If it had been fifty-seven minutes then it might have been a news item.”

“Fifty-seven seconds, huh? If it had been fifty-seven minutes, then it could have made the news.”

Nothing about the Wrights’ feat appeared in the Dayton Journal the next morning. But news considered important enough to be displayed on the first page of that same issue included items about a routine weekly meeting of the local united trades and labor council; a colored man named Charles Brown, who admitted pocketbook thefts; the pardoning of a robber from Joliet prison, in Illinois. On the page opposite the editorial page, the biggest, blackest headline was: “Stores Are Filled with Christmas Shoppers.”

Nothing about the Wrights' achievement was mentioned in the Dayton Journal the next morning. But news deemed important enough to be featured on the front page of that same issue included stories about a regular weekly meeting of the local united trades and labor council; a Black man named Charles Brown, who confessed to stealing wallets; and the pardon of a robber from Joliet prison in Illinois. On the page opposite the editorial section, the biggest, boldest headline read: “Stores Are Filled with Christmas Shoppers.”

Dayton afternoon papers on that December 18 did print accounts of the receipt of the telegram by Bishop Wright, as well as other “facts” about the flight. The Dayton Herald article appeared to be a rehash of the dispatch from Norfolk in the Cincinnati Enquirer. Over the article in the Dayton Daily News, on an inside page, alongside of so-called “country correspondence” from near-by towns, the heading was: “Dayton Boys Emulate Great Santos-Dumont.” Santos-Dumont had flown in an airship, and now the Wrights had flown in something or other. Therefore the Wrights must be imitators of Alberto Santos-Dumont! Lacking scientific knowledge, the editors failed to distinguish between a flying-machine, heavier-than-air, and an airship consisting of a gas-bag equipped with a propeller. Indeed, from then on, nearly all who had heard of the reported flights, editors included, were in one or the other of two groups of disbelievers: (1) those who refused to believe the flights had taken place at all; and (2) those108 who thought that even if they had been made they were not of great importance.

Dayton afternoon papers on December 18 reported on Bishop Wright receiving the telegram, along with other “facts” about the flight. The Dayton Herald article seemed to be a recap of the dispatch from Norfolk in the Cincinnati Enquirer. In the Dayton Daily News, on an inside page, next to so-called “country correspondence” from nearby towns, the headline read: “Dayton Boys Emulate Great Santos-Dumont.” Santos-Dumont had flown in an airship, and now the Wrights had flown in something too. So, the Wrights must be copying Alberto Santos-Dumont! Lacking scientific knowledge, the editors couldn't tell the difference between a heavier-than-air flying machine and an airship made of a gas bag with a propeller. In fact, from that point on, almost everyone who heard about the reported flights, including editors, fell into one of two groups of skeptics: (1) those who didn’t believe the flights happened at all; and (2) those108 who thought that even if they did occur, they weren’t very significant.

The Associated Press, that had declined to accept news of the flights at either Norfolk or Dayton the day before, now sent out for afternoon papers on December 18, a brief report, less than 350 words, from Norfolk. This appeared to be simply a condensation of the article in the Virginian-Pilot that morning and contained most of the same inaccuracies. Not more than two or three sentences in the AP dispatch were correct. “The machine flew for three miles,” the report said, “... and gracefully descended to the earth at the spot selected by the man in the navigator’s car as a suitable landing place.... Preparatory to its flight the machine was placed upon a platform ... on a high sandhill and when all was in readiness the fastenings to the machine were released and it started down an incline. The navigator, Wilbur Wright, then started a small gasoline engine which worked the propellers. When the end of the incline was reached the machine gradually arose until it obtained [sic] an altitude of 60 feet.... In the center is the navigator’s car and suspended just below the bottom plan [sic] is a small gasoline engine, which furnishes the motive power for the propelling and elevating wheels.

The Associated Press, which had refused to accept news of the flights at either Norfolk or Dayton the day before, now sent out a brief report for afternoon papers on December 18, containing less than 350 words from Norfolk. This seemed to be just a summary of the article in the Virginian-Pilot that morning and included most of the same inaccuracies. No more than two or three sentences in the AP dispatch were accurate. “The machine flew for three miles,” the report stated, “... and gracefully descended to the earth at the spot selected by the man in the navigator’s car as a suitable landing place.... Before its flight, the machine was placed on a platform ... on a high sandhill and when everything was ready, the fastenings to the machine were released and it started down an incline. The navigator, Wilbur Wright, then started a small gasoline engine that powered the propellers. When the end of the incline was reached, the machine gradually lifted until it reached an altitude of 60 feet.... In the center is the navigator’s car and suspended just below the bottom plan [sic] is a small gasoline engine that provides the power for the propelling and elevating wheels.

“There are two 6-blade propellers,” the dispatch said, “one arranged just below the frame so as to exert an upward force when in motion and the other extends horizontally from the rear to the center of the car furnishing forward impetus. Protruding from the center of the car is a huge fan-shaped rudder of canvas, stretched109 upon a frame of wood. This rudder is controlled by the navigator and may be moved to each side, raised or lowered.” Not all the Associated Press papers printed the brief dispatch in full; in fact, many did not use it at all.

“There are two 6-blade propellers,” the dispatch said, “one positioned just below the frame to provide an upward force while in motion, and the other extends horizontally from the rear to the center of the car to give it forward momentum. Protruding from the center of the car is a large fan-shaped rudder made of canvas, stretched109 on a wooden frame. This rudder is operated by the navigator and can be moved to either side, raised, or lowered.” Not all the Associated Press papers published the brief dispatch in full; in fact, many didn’t use it at all.

With the first reports “confirmed” by the Associated Press, two papers, the Washington Post and Chicago Record-Herald, that had withheld the story bought from Mr. Moore at Norfolk, finally printed the Moore dispatch on the morning of December 19. The Washington Post even used it on the front page, but cautiously inserted qualifying phrases, saying “it is reported” that a flight was made. And the Chicago Record-Herald on December 20 had an editorial about the flights, or about “the” flight. But as the editorial restated many of the inaccuracies contained in the news report, it only added to the general misinformation.

With the initial reports “confirmed” by the Associated Press, two newspapers, the Washington Post and Chicago Record-Herald, which had held back the story bought from Mr. Moore in Norfolk, finally published the Moore dispatch on the morning of December 19. The Washington Post even put it on the front page, but cautiously included qualifying phrases, stating “it is reported” that a flight took place. And the Chicago Record-Herald on December 20 published an editorial about the flights, or about “the” flight. However, since the editorial repeated many of the inaccuracies found in the news report, it only contributed to the overall misinformation.

(A few newspaper editors are still touchy about the inadequate reporting of the Wrights’ first flights. As recently as January 29, 1941, the Chicago Daily News had an editorial of nearly half a column defending the merit of the hopelessly inaccurate Associated Press dispatch from Norfolk on December 18, 1903. And shortly afterward, on February 12, 1941, in connection with a letter from a reader who sought to give the historic facts, the Daily News editor, still unwilling to accept the truth, added a note insisting once again that there was “nothing fantastic” about that AP report from Norfolk!)

(A few newspaper editors are still sensitive about the inadequate coverage of the Wrights’ first flights. As recently as January 29, 1941, the Chicago Daily News published an editorial of nearly half a column defending the validity of the hopelessly inaccurate Associated Press dispatch from Norfolk on December 18, 1903. Then, shortly after, on February 12, 1941, in response to a letter from a reader who aimed to present the historical facts, the Daily News editor, still unwilling to accept the truth, added a note insisting once again that there was “nothing fantastic” about that AP report from Norfolk!)

At a meeting of the American Association for the Advancement of Science, in St. Louis, December 28 to110 January 2, Octave Chanute made an address on the subject of Aerial Navigation in which he referred to the Wrights’ flights. But little was said about the Chanute speech in the newspapers.

At a meeting of the American Association for the Advancement of Science in St. Louis, from December 28 to January 2, Octave Chanute gave a talk on Aerial Navigation where he mentioned the Wrights’ flights. There wasn't much coverage of Chanute's speech in the newspapers.

(Chanute used that address as the basis for an article in the March, 1904, issue of Popular Science Monthly in which he said: “Now that an initial success has been achieved with a flying-machine, we can discern some of the uses of such apparatus and also some of its limitations. Its first application will probably be military.” He said, too, that “it may even carry mails in special cases, but the useful loads carried will be very small. The machines will eventually be fast, they will be used in sport, but they are not to be thought of as commercial carriers.” He did not think it would ever be practical to carry loads “such as a store of explosives, or big guns to shoot them.”)

(Chanute used that address as the basis for an article in the March 1904 issue of Popular Science Monthly in which he said: “Now that we’ve achieved an initial success with a flying machine, we can see some of its uses and also some of its limitations. Its first application will probably be military.” He also mentioned that “it may even carry mail in special cases, but the useful loads it can carry will be very small. The machines will eventually be fast and used in sports, but we shouldn’t think of them as commercial carriers.” He didn’t believe it would ever be practical to carry loads “like a stock of explosives or big guns to fire them.”)

Almost as surprising as the lack of effort by the usually painstaking Associated Press to get the facts about the Kitty Hawk event, was the failure of the AP, or any other press association, or any newspaper, to rush a staff man to Dayton in an effort to obtain the whole amazing story of what the Wrights had done.

Almost as surprising as the usual thoroughness of the Associated Press not putting in the effort to get the facts about the Kitty Hawk event, was the failure of the AP, or any other news organization, or any newspaper, to send someone to Dayton quickly to gather the incredible story of what the Wright brothers had achieved.

Desiring to correct the misinformation that had been printed, the Wrights prepared a statement about their recent flights, and gave this to the Associated Press with the request that it be published. This appeared, at least in part, in probably a majority of the Associated Press newspapers, on January 6; but the initiative, it should be noted, did not come from the press association, but from the Wrights themselves. A few editorial paragraphers111 made derisive comments on one sentence of the statement which suggested that “the day of flying had arrived.”

Wanting to set the record straight about the misleading information that was published, the Wrights put together a statement regarding their recent flights and submitted it to the Associated Press, asking for it to be published. This showed up, at least in part, in probably most of the Associated Press newspapers on January 6; however, it's important to note that the initiative came from the Wrights themselves, not the press association. A few editorial comments111 made fun of one line in the statement that claimed “the day of flying had arrived.”

Exactly one month after the Kitty Hawk flights, on Sunday, January 17, the New York Herald, in its magazine section, had an article headed: The Machine That Flies. Despite the time that had elapsed, affording opportunity to get the facts, this article not only contained a mass of preposterous misstatements but even quoted Wilbur Wright for many of them. The article was accompanied by a drawing, an artist’s conception of the machine in flight, and a diagram, showing the two “six-bladed propellers,” one behind the machine and the other beneath it, to give it elevation!

Exactly one month after the Kitty Hawk flights, on Sunday, January 17, the New York Herald featured an article in its magazine section titled: The Machine That Flies. Even though some time had passed to gather accurate information, this article not only contained a lot of ridiculous inaccuracies but also quoted Wilbur Wright for many of them. The article included an illustration, an artist’s interpretation of the machine in flight, and a diagram showing the two “six-bladed propellers,” one at the back of the machine and the other underneath it, to provide lift!


The Wrights felt a glow of pride and satisfaction in having both invented and demonstrated the device that had baffled the ablest scientists through the centuries. But still they did not expect to make their fortunes. True, they had applied, on March 23, 1903, or nearly nine months before they flew, for basic patents (not issued until May 22, 1906), but that was by way of establishing an authentic record. Thus far they hadn’t even employed a patent lawyer.

The Wrights felt a sense of pride and satisfaction in both inventing and demonstrating the device that had puzzled the smartest scientists for centuries. However, they didn't expect to become rich from it. It's true that they applied for basic patents on March 23, 1903—almost nine months before their flight—but that was just to create an official record. Up until that point, they hadn't even hired a patent lawyer.

Long afterward, Orville Wright was asked what he and Wilbur would have taken for all their secrets of aviation, for all patent rights for the entire world, if someone had come along to talk terms just after those first flights. He wasn’t sure, but he had an idea that if they had received an offer of ten thousand dollars they might have accepted it.

Long after, Orville Wright was asked what he and Wilbur would have accepted for all their secrets of aviation, for all patent rights for the entire world, if someone had come along to negotiate right after those first flights. He wasn't sure, but he thought that if they had received an offer of ten thousand dollars, they might have taken it.

Since the airplane was not yet developed into a type for practical use, ten thousand dollars might have been considered a fair return for their time, effort, and outlay. They had had all the fun and satisfaction and their expenses had been surprisingly small. Their cash outlay for building and flying their power plane was less than $1,000, and that included their railroad fares to and from Kitty Hawk. Of course, the greater part of their expenses113 would have been for mechanical labor, much of which they did themselves. But skilled labor was low-priced at that time; one could hire a better than average mechanic for as little as $16 a week. Even if the Wrights had charged themselves with the cost of their own work, their total expenses on the power plane would still have been less than $2,000.

Since the airplane hadn’t yet been developed for practical use, ten thousand dollars could have seemed like a fair return for their time, effort, and investment. They had enjoyed all the fun and satisfaction, and their expenses had been surprisingly low. Their cash investment for building and flying their power plane was under $1,000, which included their train fares to and from Kitty Hawk. Most of their expenses113 would have been for mechanical labor, much of which they did themselves. However, skilled labor was affordable at that time; you could hire a better-than-average mechanic for as little as $16 a week. Even if the Wrights had accounted for the cost of their own work, their total expenses for the power plane would still have been under $2,000.

Many fanciful stories have been told about the sacrifices the Wright family made to enable the brothers to fly, and of how they were financed by this person or that. More than one man of wealth in Dayton has encouraged the belief that he financed them. One persistent story is that they raised money for their experiments by the sale of an Iowa farm in which they had an interest. The truth is that this farm, which had been deeded by their father to the four Wright brothers, was sold early in 1902 before Wilbur and Orville had even begun work on their power plane or spent much on their experiments. The sale was made at the request of their brother Reuchlin, and had no relation whatsoever to aviation. Nor is it true that the Wright home was mortgaged during the time of the brothers’ experiments. Another story was that their sister Katharine had furnished the money they needed out of her salary as school teacher. Katharine Wright was always amused over that tale, for she was never a hoarder of money nor a financier, and could hardly have provided funds even if this had been necessary. Any rumor that her brothers could have borrowed money from her, rather than lending money to her, as they sometimes did, was almost as funny to Katharine as another report—that her114 brothers had relied on her for mathematical assistance in their calculations.

Many imaginative stories have been told about the sacrifices the Wright family made to let the brothers fly and about how they were funded by various wealthy individuals. More than one wealthy person in Dayton has fueled the idea that he was their sponsor. One ongoing story is that they gathered funds for their experiments by selling an Iowa farm they had a stake in. The truth is that this farm, which their father had given to the four Wright brothers, was sold in early 1902 before Wilbur and Orville even started working on their powered plane or spent much on their experiments. The sale was requested by their brother Reuchlin and had nothing to do with aviation. It’s also not true that the Wright home was mortgaged during the brothers’ experiments. Another tale claimed that their sister Katharine provided the money they needed from her salary as a school teacher. Katharine Wright always found that story amusing; she was never a saver or a financier and could hardly have given money even if it was necessary. Any suggestion that her brothers could have borrowed money from her instead of the other way around, as they sometimes did, was just as humorous to Katharine as another rumor—that her 114 brothers relied on her for help with the math in their calculations.

The simple fact is that no one ever financed the Wrights’ work except Wilbur and Orville themselves. Their bicycle business had been giving them a decent income and at the end of the year 1903 they still had a few thousand dollars’ savings in a local building and loan association. Whatever financial scrimping was necessary came after they had flown; after they knew they had made a great discovery.

The simple fact is that no one ever funded the Wrights' work except for Wilbur and Orville themselves. Their bicycle business had been giving them a solid income, and by the end of 1903, they still had a few thousand dollars saved up in a local building and loan association. Any financial cutbacks they had to make happened after they had flown; after they knew they had made a significant discovery.

But the Wrights’ belief that they had achieved something of great importance was not bolstered by the attitude of the general public. Not only were there no receptions, brass bands, or parades in their honor, but most people paid less attention to the history-making feat than if the “boys” had simply been on vacation and caught a big fish, or shot a bear.

But the Wrights’ belief that they had accomplished something significant wasn’t supported by the general public's response. There were no celebrations, brass bands, or parades in their honor, and most people seemed to care less about their historic achievement than if the “boys” had just been on vacation and caught a big fish or hunted a bear.

Before the flights, some of the neighbors had been puzzled by reports that the Wrights were working on a flying-machine. One man in business near the Wright shop had become acquainted with an inventor who thought he was about to perfect a perpetual motion machine; and this businessman promptly sent the inventor to the Wrights, assuming that he would find them kindred spirits. John G. Feight, living next door to the Wright home, had remarked, just before the brothers went to Kitty Hawk: “Flying and perpetual motion will come at the same time.”

Before the flights, some neighbors were confused by reports that the Wrights were developing a flying machine. One businessman nearby had met an inventor who believed he was close to perfecting a perpetual motion machine, so he quickly sent the inventor to the Wrights, thinking they would share similar ideas. John G. Feight, who lived next door to the Wright home, had said just before the brothers headed to Kitty Hawk: “Flying and perpetual motion will happen at the same time.”

Now that flights had been made, neighbors didn’t doubt the truth of the reports—though one of them had115 his own explanation. Mr. Webbert, father of the man from whom the Wrights rented their shop, said:

Now that flights had happened, the neighbors didn't doubt the truth of the reports—although one of them had his own explanation. Mr. Webbert, the father of the man from whom the Wrights rented their shop, said:

“I have known those boys ever since they were small children, and if they say they flew I know they did; but I think there must be special conditions down in North Carolina that would enable them to fly by the power of a motor. There is only one thing that could lift a machine like that in this part of the country—spirit power.” Webbert was a spiritualist. He had seen tables and pianos lifted at séances!

“I have known those boys since they were little kids, and if they say they flew, I believe them; but I think there must be specific conditions in North Carolina that could allow them to fly with a motor. The only thing that could lift a machine like that in this part of the country is spirit power.” Webbert was a spiritualist. He had witnessed tables and pianos being lifted at séances!

But even if the boys had flown, what of it? Men were flying in Europe, weren’t they? Hadn’t Santos-Dumont flown some kind of self-propelled balloon?

But even if the boys had flown, so what? Men were flying in Europe, right? Didn’t Santos-Dumont fly some sort of self-propelled balloon?

The one person who had almost unbounded enthusiasm for what the brothers had accomplished was their father. They found it difficult to keep a complete file of the photographs they had made showing different phases of their experiments, because the moment their father’s eye fell on one of these pictures he would pick it up and mail it to some relative along with a letter telling with pride what the boys had done.

The one person who had almost limitless excitement for what the brothers had achieved was their dad. They had a hard time maintaining a complete collection of the photos they had taken that showed various stages of their experiments, because as soon as their dad saw one of those pictures, he would grab it and send it to some relative with a letter proudly explaining what the boys had done.

Two brothers in Boston sensed, however, that, if the scant reports about the Kitty Hawk event were based on truth, then something of great significance had happened. These men were Samuel and Godfrey Lowell Cabot, wealthy and influential members of a famous family. Both of them, particularly Samuel, had long been interested in whatever progress was being made in aeronautics. On December 19, the day after the first news of the flights was published, Samuel Cabot sent to the Wrights a telegram of congratulations. Two days116 later, his brother Godfrey wrote them a letter. In that letter Godfrey Cabot wanted to know if they thought their machine could be used for carrying freight. He was financially interested in an industrial operation in West Virginia, he said, where conditions would justify a rate of $10 a ton for transporting goods by air only sixteen miles.

Two brothers in Boston sensed that, if the limited reports about the Kitty Hawk event were true, then something significant had occurred. These men were Samuel and Godfrey Lowell Cabot, wealthy and influential members of a prominent family. Both of them, especially Samuel, had long been interested in the progress being made in aeronautics. On December 19, the day after the first news of the flights was published, Samuel Cabot sent a telegram of congratulations to the Wrights. Two days later, his brother Godfrey wrote to them. In that letter, Godfrey Cabot asked if they thought their machine could be used for transporting freight. He mentioned that he was financially involved in an industrial venture in West Virginia, where conditions would justify a charge of $10 a ton for moving goods by air just sixteen miles.

FIRST FLIGHT. The only picture made of man’s first flight in a power-driven, heavier-than-air machine, Kitty Hawk, December 17, 1903. The plane, piloted by Orville Wright, has just taken off from the monorail. Wilbur Wright, running at the side, had held the wing to balance the machine until it left the rail.

One reason why nearly everyone in the United States was disinclined to swallow the reports about flying with a machine heavier than air was that important scientists had already explained in the public prints why the thing was impossible. When a man of the profound scientific wisdom of Simon Newcomb, for example, had demonstrated with unassailable logic why man couldn’t fly, why should the public be fooled by silly stories about two obscure bicycle repair-men who hadn’t even been to college? Professor Newcomb was so distinguished an astronomer that he was the only American since Benjamin Franklin to be made an associate of the Institute of France. It was widely assumed that what he didn’t know about laws of physics simply wasn’t in books; and that when he said flying couldn’t be done, there was no need to inquire any further. More than once Professor Newcomb had written that flight without gas-bags would require the discovery of some new metal or a new unsuspected force in Nature. Then, in an article in The Independent—October 22, 1903, while the Wrights were at Kitty Hawk assembling their power machine—he not only proved that trying to fly was nonsense, but went further and showed that even if a man did fly, he 117wouldn’t dare to stop. “Once he slackens his speed, down he begins to fall.—Once he stops, he falls a dead mass. How shall he reach the ground without destroying his delicate machinery? I do not think that even the most imaginative inventor has yet put on paper a demonstrative, successful way of meeting this difficulty.”

One reason why almost everyone in the United States was reluctant to believe reports about flying with a machine heavier than air was that prominent scientists had already explained in public why it was impossible. When a man with the deep scientific knowledge of Simon Newcomb, for instance, had demonstrated with strong logic why humans couldn't fly, why should the public be tricked by ridiculous stories about two unknown bicycle mechanics who hadn’t even attended college? Professor Newcomb was such a respected astronomer that he was the only American since Benjamin Franklin to be made an associate of the Institute of France. It was generally believed that what he didn’t know about the laws of physics simply wasn’t in books; and when he stated that flying couldn’t be achieved, there was no need to look into it further. More than once, Professor Newcomb had written that flight without gas-bags would require the discovery of some new metal or an unforeseen force in nature. Then, in an article in The Independent—October 22, 1903, while the Wrights were at Kitty Hawk assembling their powered machine—he not only demonstrated that trying to fly was absurd but went even further and showed that even if a person did manage to fly, they wouldn’t dare to stop. “Once he slackens his speed, down he begins to fall.—Once he stops, he falls like a dead weight. How is he supposed to reach the ground without destroying his delicate machinery? I do not think that even the most imaginative inventor has yet put on paper a clear, successful way to solve this problem.”

THE FIRST POWER PLANE. A side view of the 1903 plane at Kitty Hawk.

In all his statements, Professor Newcomb had the support of other eminent authorities, including Rear Admiral George W. Melville, then chief engineer for the United States Navy, who, a year or two previously, in the North American Review, had set forth convincingly the absurdity of attempts to fly.

In all his statements, Professor Newcomb had the backing of other notable experts, including Rear Admiral George W. Melville, who was then the chief engineer for the United States Navy. A year or two earlier, in the North American Review, he had convincingly argued against the ridiculousness of trying to fly.

The most recent Newcomb article was all the more impressive as a forecast from the fact that it appeared only fifteen days after one of Professor Langley’s unsuccessful attempts at flight. That is, Langley’s attempt seemed to show that flight was beyond human possibility, and then Newcomb’s article explained why it was impossible. Though these pooh-poohing statements by Newcomb and other scientists were probably read by relatively few people, they were seen by editors, editorial writers, and others who could have much influence on public opinion. Naturally, no editor who “knew” a thing couldn’t be done would permit his paper to record the fact that it had been done.

The latest article by Newcomb was even more impressive as a prediction because it came out just fifteen days after one of Professor Langley’s failed flight attempts. Langley’s attempt seemed to suggest that human flight was impossible, and then Newcomb’s article explained why it was impossible. Although these dismissive comments from Newcomb and other scientists were likely read by relatively few people, they reached editors, editorial writers, and others who could greatly influence public opinion. Naturally, no editor who “knew” something couldn’t be done would allow their paper to acknowledge that it had been achieved.

Oddly enough, one of the first public announcements by word of mouth about the Wrights’ Kitty Hawk flights was in a Sunday-school. A. I. Root, founder of a still prosperous business for the sale of honey and beekeepers’ supplies at Medina, Ohio, taught a Sunday-school class. One morning shortly before the dismissal bell, observing that the boys in the class were restless,118 he sought to restore order by catching their interest. Perhaps he wished to show, too, that miracles as wonderful as any in the Bible were still possible.

Strangely enough, one of the first times news about the Wrights’ Kitty Hawk flights spread by word of mouth was in a Sunday school. A. I. Root, the founder of a still-thriving business selling honey and beekeeping supplies in Medina, Ohio, taught a Sunday school class. One morning, just before the dismissal bell, noticing that the boys in the class were restless,118 he tried to regain their attention by engaging them. Maybe he also wanted to demonstrate that miracles as amazing as those in the Bible were still happening.

“Do you know, friends,” he said, “that two Ohio boys, or young men rather, have outstripped the world in demonstrating that a flying-machine can be constructed without the aid of a balloon?” He had read a brief item about the Wrights in an Akron paper.

“Do you know, friends,” he said, “that two guys from Ohio, or young men really, have surpassed everyone in proving that you can build a flying machine without using a balloon?” He had read a short article about the Wrights in a paper from Akron.

The class became attentive and Root went on: “During the past two months these two boys have made a machine that actually flew through the air for more than half a mile, carrying one of the boys with it. This young man is not only a credit to our state but to the whole country and to the world.”

The class paid attention as Root continued: “Over the last two months, these two boys built a machine that actually flew through the air for over half a mile, carrying one of them with it. This young man is not just a source of pride for our state but for the entire country and the world.”

Though this was several weeks after the Wrights had first flown, no one in the class had ever heard about it, and incredulously they fired questions at the teacher.

Though this was several weeks after the Wrights had first flown, no one in the class had ever heard about it, and they incredulously bombarded the teacher with questions.

“Where do the boys live? What are their names? When and where did their machine fly?”

“Where do the boys live? What are their names? When and where did their machine take off?”

Root described, not too accurately, the Kitty Hawk flights, and added: “When they make their next trial I am going to try to be on hand to see the experiment.”

Root described the Kitty Hawk flights, not very accurately, and added: “When they do their next test, I’m going to try to be there to see the experiment.”

An important part of Root’s business was publication of the still widely circulated magazine, Gleanings in Bee Culture, and in his issue of March 1, 1904, he told of the episode in the Sunday-school. By printing that story, the Medina bee man may possibly have been the first editor of a scientific publication in the United States to report that man could fly. (The Popular Science Monthly in its issue of March, 1904, had an article by Octave Chanute in which the flights were mentioned.)119 Root a little later even predicted: “Possibly we may be able to fly over the North Pole.”

An important part of Root’s business was the publication of the still widely circulated magazine, Gleanings in Bee Culture, and in the March 1, 1904 issue, he shared a story from Sunday school. By printing that story, the Medina beekeeper might have been the first editor of a scientific publication in the United States to report that humans could fly. (The Popular Science Monthly in its March 1904 issue featured an article by Octave Chanute that mentioned the flights.)119 A little later, Root even predicted: “Maybe we’ll be able to fly over the North Pole.”

The Wrights were more amused than disturbed by the lack of general recognition that flying was now possible. They inwardly chuckled when they heard people still using the old expression: “Why, a person could no more do that than he could fly!” But they knew they had only begun to learn about handling a flying-machine.

The Wrights found it more funny than unsettling that most people still didn't realize flying was actually possible now. They secretly laughed when they heard people still saying things like, “Well, a person could no more do that than he could fly!” But they understood they had just started to figure out how to operate a flying machine.


In all their work on their power plane the Wrights’ main incentive had been to gain the distinction of being the first of mankind to fly. They had not designed the machine for practical use. Now, however, even though they did not yet foresee many of the uses for which the airplane was destined, they began to think it could be developed into a machine useful for scouting in warfare, for carrying mail to isolated places, for exploration; and that it would appeal to those who could afford it for sport.

In total their work on their power plane, the Wrights’ main motivation had been to earn the title of being the first humans to fly. They hadn't created the machine for practical purposes. However, even though they didn't yet envision many of the applications the airplane would eventually have, they started to consider that it could be developed into a useful machine for scouting in warfare, for delivering mail to remote areas, for exploration, and that it might attract those who could afford it for recreational use.

If their machine was capable, as they had demonstrated, of flying by its own power for 852 feet against a 20-mile wind, there was no reason why it shouldn’t go many times that far. But if the machine was to be practical, many improvements would be necessary, and they would need more experience in flying. Much practice would be required, and that would mean more expense in proportion to income, for they would have less time for building and repairing bicycles. But they decided to devote to aviation whatever amount of time seemed necessary. A number of bicycles at their shop were in various stages of completion. But no new ones were started after the Wrights’ return from Kitty Hawk, though some of those on hand were completed121 and sold. The brothers now began to turn over to Charlie Taylor, their chief mechanic, most of the routine work of the shop.

If their machine was capable, as they had shown, of flying on its own for 852 feet against a 20-mile wind, there was no reason it shouldn't fly many times that distance. But if the machine was going to be practical, they would need to make a lot of improvements, and they would need more experience in flying. They would require a lot of practice, which would mean more expense compared to their income since they would have less time for building and repairing bicycles. However, they decided to dedicate whatever time seemed necessary to aviation. Several bicycles in their shop were at different stages of completion. No new bicycles were started after the Wrights’ return from Kitty Hawk, although some of those in progress were completed and sold. The brothers now began to pass most of the routine work of the shop over to Charlie Taylor, their chief mechanic.121

In January, 1904, the brothers began building a new plane. It was similar to the one flown at Kitty Hawk, but there were a number of changes, including more sturdy construction throughout. The weight exceeded that of the original plane by about eighty pounds. (In flight, the weight, including the pilot, and 70 pounds of iron bars carried on the framework under the front elevator, was 900 pounds.5) The wing camber was changed from 1-20 to 1-25—that is, the curvature was decreased; and the ribs were tapered from front to rear spar instead of being of uniform depth, as in the earlier model. An entirely new engine went into the 1904 machine. In fact, the Wrights started to build three new engines. One of these had four cylinders of 4⅛-inch bore; another, four cylinders of only 4-inch bore, as the one used at Kitty Hawk; and the third was a V-type, of eight cylinders. The 4⅛-inch bore was the one installed122 in the 1904 plane and gave a satisfactory amount of power—but not so much as the Wrights later developed in the other four-cylinder motor of only four-inch bore. That motor they kept in their shop and used for a kind of guinea pig, trying various improvements and refinements until it produced as much power as they had expected from the V-type motor of eight cylinders and twice as much as the original motor used at Kitty Hawk. They then gave up the idea of completing the V-type motor.

In January 1904, the brothers started building a new plane. It was similar to the one flown at Kitty Hawk, but there were several changes, including a more robust construction overall. The weight exceeded that of the original plane by about eighty pounds. (In flight, the total weight, including the pilot and 70 pounds of iron bars added to the framework under the front elevator, was 900 pounds.5) The wing camber was adjusted from 1-20 to 1-25—which means the curvature was reduced; and the ribs were tapered from the front to the rear spar instead of being the same depth as in the earlier model. An entirely new engine was used in the 1904 machine. In fact, the Wrights began building three new engines. One of these had four cylinders with a 4⅛-inch bore; another also had four cylinders but a 4-inch bore, like the one used at Kitty Hawk; and the third was a V-type with eight cylinders. The 4⅛-inch bore engine was the one installed122 in the 1904 plane and provided a satisfactory amount of power—but not as much as the Wrights later achieved with the other four-cylinder engine that had a 4-inch bore. They kept that engine in their shop as a kind of test subject, trying out various improvements and refinements until it produced as much power as they had expected from the V-type engine with eight cylinders, and twice as much as the original engine used at Kitty Hawk. They then decided not to finish the V-type engine.

Another change in the 1904 machine was using white pine instead of spruce for the front and rear spars in the wings. Spruce was not available in Dayton at that time, and tests the Wrights made at their shop, in the manner usually employed for ascertaining the strength of woods, indicated that the two woods were about equally strong. (But in actual use, when stresses came suddenly, as in landing, the white pine spars snapped “like taffy under a hammer blow,” though spruce had always withstood such shocks. The brothers rebuilt the wings, with all spars of spruce.)

Another change in the 1904 machine was using white pine instead of spruce for the front and rear spars in the wings. Spruce wasn't available in Dayton at that time, and tests the Wrights conducted at their workshop, using the usual methods for determining the strength of woods, showed that the two types of wood were roughly equally strong. (However, in actual use, when stresses occurred suddenly, such as during landing, the white pine spars snapped "like taffy under a hammer blow," while spruce had always withstood those kinds of shocks. The brothers rebuilt the wings using all spruce spars.)

To obtain practice, their first need was a suitable field, not too far from home. They found a cow pasture, fairly level, handy to an interurban railway, at Simms Station, eight miles from Dayton, toward Springfield. This field, often called the Huffman prairie, was part of a farm belonging to a Dayton bank president, Torrence Huffman. Compared with a modern flying-field the area of sixty-eight acres they wanted to use was not quite ideal. It contained a number of trees, besides being near power wires and poles. But it was as good as they123 could find and without delay the Wrights introduced themselves to Mr. Huffman to ask if they might rent his pasture for their experiments. He granted the request and told them they were welcome to use the field free of charge. But he said he hoped they would drive his cows to a safe place and not run over them.

To get some practice, they first needed a good location, not too far from home. They found a cow pasture that was mostly flat and close to an interurban railway at Simms Station, eight miles from Dayton toward Springfield. This area, often referred to as Huffman prairie, was part of a farm owned by Torrence Huffman, a president of a Dayton bank. Compared to a modern airfield, the sixty-eight acres they wanted to use weren't exactly perfect. There were several trees, and it was close to power lines and poles. But it was the best they could find, so the Wrights quickly introduced themselves to Mr. Huffman to ask if they could rent his pasture for their experiments. He agreed and told them they could use the field for free. However, he expressed a hope that they would keep his cows safe and avoid running over them.

By April 15, 1904, the Wrights had built a rough wooden shed at the Huffman pasture, in preparation for their experiments.

By April 15, 1904, the Wrights had constructed a basic wooden shed at the Huffman pasture to get ready for their experiments.

Even if they had tried, the Wrights could hardly have kept secret what they were doing here at the Huffman prairie, with an interurban car line and two highways passing the field they were using. But they took special precautions against being thought secretive, for they knew that the best way to avoid being bothered by newspaper people or others was to make no mystery of what they were doing. Before they had attempted even one trial flight at the Huffman pasture they wrote letters to each of the Dayton papers, as well as to each of the Cincinnati papers, that on May 23 they would attempt to fly and would be glad to have any newspaper representative who felt interested come and watch them. Their only request was that no pictures be taken, and that the reports should not be sensational. This latter stipulation was to avoid attracting crowds, but as it turned out there was no need to be concerned about curiosity-seekers.

Even if they had tried, the Wrights could hardly have kept what they were doing at Huffman Prairie a secret, with an interurban car line and two highways running by the field they were using. However, they took special precautions to avoid being seen as secretive because they knew that the best way to stay away from reporters or others was to make their activities public. Before they even attempted a single test flight at Huffman pasture, they sent letters to each of the Dayton newspapers and every Cincinnati paper, announcing that on May 23 they would try to fly and would welcome any interested newspaper representatives to come watch. Their only requests were that no pictures be taken and that the reports wouldn't be sensational. This last request was to prevent attracting large crowds, but as it turned out, there was no need to worry about curiosity-seekers.

About a dozen newspapermen showed up. Also on hand were a number of friends and neighbors of the Wright family. Altogether perhaps thirty-five persons were present—all by invitation.

About a dozen journalists showed up. There were also several friends and neighbors of the Wright family. In total, around thirty-five people were there—all by invitation.

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The Wrights dragged their machine out of the shed to wait for a suitable wind before launching the machine from the short stretch of wooden track. As it happened, the wind was unusually high that day, about twenty-five miles an hour, and the Wrights said they would wait for it to die down a little. When the high wind did cease, it went suddenly to an almost complete calm, and a wind of at least eleven miles an hour was needed to take off from so short a track. The Wrights said they would try a flight if the wind picked up. But the wind failed to do so. The crowd waited and two or three of the reporters—too experienced to be easily fooled—began to make comments to one another. They hadn’t wanted to come in the first place. Why had they been asked to waste time on such an assignment? Most of the guests, though, had only sympathy for the brothers. They actually seemed sincere in thinking they could fly.

The Wrights pulled their machine out of the shed to wait for a good wind before launching it from the short stretch of wooden track. As luck would have it, the wind was unusually strong that day, about twenty-five miles an hour, and the Wrights decided to wait for it to die down a bit. When the strong wind finally calmed, it dropped suddenly to almost no breeze, and they needed at least eleven miles an hour to take off from such a short track. The Wrights said they would attempt a flight if the wind picked up. But the wind didn’t cooperate. The crowd waited, and a couple of the reporters—too seasoned to be easily deceived—started chatting among themselves. They hadn’t wanted to be there in the first place. Why had they come to waste time on this assignment? Most of the guests, however, felt only empathy for the brothers. They genuinely seemed to believe they could fly.

Though sorry to disappoint the spectators, the Wrights showed no signs of embarrassment. They had learned to take events as they came. Finally, after the day had dragged on with no sign of a more favorable wind, one of the brothers announced:

Though sorry to disappoint the spectators, the Wrights showed no signs of embarrassment. They had learned to take events as they came. Finally, after the day had dragged on with no sign of a more favorable wind, one of the brothers announced:

“We can’t fly today; but since you’ve taken the trouble to come and wait so long, we’ll let the machine skim along the track and you’ll get an idea of what it’s supposed to do. With so short a track, we may not get off the ground, but you’ll see how it operates.”

“We can’t fly today, but since you went through the trouble of coming and waiting so long, we’ll let the machine glide along the track, and you’ll get an idea of what it’s supposed to do. With such a short track, we might not take off, but you’ll see how it works.”

Then the engine misbehaved. It worked all right in the warming-up period, but began to skip explosions as soon as the machine started down the track. This was125 caused, the Wrights soon learned, by the flow of air over the mouth of the intake pipe—a trouble never experienced with the engine used at Kitty Hawk.

Then the engine acted up. It ran fine during the warm-up, but started missing explosions as soon as the machine hit the track. The Wrights quickly discovered that this was due to the airflow over the intake pipe—a problem they never faced with the engine used at Kitty Hawk. This was125

After running the length of the track, the machine slid off the end without rising into the air at all. That wasn’t much of a story for the reporters. Their assumption that they had been sent on a wild goose chase seemed to be confirmed. Would there be a flight the next day? The Wrights couldn’t be sure. First of all they must find out what ailed that engine. They might be able to do that overnight, or it might take longer. However, all who wished to return the next day would be welcome. Indeed, the Wrights said, any newspaper representative would be welcome at any time.

After running the full length of the track, the machine slid off the end without taking to the air at all. That wasn’t much of a story for the reporters. Their belief that they had been sent on a wild goose chase seemed to be confirmed. Would there be a flight the next day? The Wrights couldn’t be sure. First, they needed to figure out what was wrong with the engine. They might be able to do that overnight, or it might take longer. However, anyone who wanted to come back the next day would be welcome. In fact, the Wrights said, any newspaper representative would be welcome at any time.

Two or three of the newspapermen did return the next day. The engine still sulked, but the wind was a bit more favorable and the Wrights decided to show the reporters what they could. This time the machine rose five or six feet from the ground and went through the air for nearly sixty feet before it came down. An electric contact point in one of the engine cylinders had worked loose, and only three cylinders were hitting. The few reporters present, though now convinced that the age of flying had not yet come, wrote friendly articles and made the most of what they had seen. The versions differed widely. One report had the machine rising to a height of seventy-five feet. In the Cincinnati Enquirer account was a comment that the machine “is more substantially constructed than other machines of its kind.”

Two or three of the journalists came back the next day. The engine was still acting up, but the wind was a bit more favorable, so the Wright brothers decided to show the reporters what they could do. This time, the machine lifted five or six feet off the ground and flew for nearly sixty feet before landing. An electric contact point in one of the engine cylinders had come loose, and only three cylinders were functioning. The few reporters present, although now convinced that the era of flying hadn’t quite arrived yet, wrote positive articles and emphasized what they had witnessed. The reports varied widely. One article claimed the machine rose to a height of seventy-five feet. In the Cincinnati Enquirer, there was a comment that the machine “is more substantially constructed than other machines of its kind.”

None of those newspapermen ever returned. During126 all their experiments that year and the next, the Wrights had about all the privacy they needed. They used to smile over a comment by Octave Chanute: “It is a marvel to me that the newspapers haven’t spotted you.”

None of those reporters ever came back. During126 all their experiments that year and the next, the Wrights had pretty much all the privacy they needed. They used to laugh at a remark by Octave Chanute: “I’m amazed that the newspapers haven’t noticed you.”

Having disposed of the reporters, the inventors resumed their work.

Having sent the reporters away, the inventors went back to their work.

Almost as soon as the new trials began, the brothers encountered a new difficulty. A track 60 feet long had been adequate for launching the machine in the wind at Kitty Hawk; but a track of 160 feet, or even one of 240 feet, was not long enough for use at Huffman field where the winds were usually light.

Almost as soon as the new trials started, the brothers faced a new challenge. A track 60 feet long had worked fine for launching the machine in the wind at Kitty Hawk, but a track of 160 feet, or even one of 240 feet, wasn’t sufficient for use at Huffman field where the winds were usually light.

The Huffman field was covered with hummocks from six inches to a foot high. Only a few spots free from hummocks were suitable for a 240-foot track. And landing wheels, such as were used later, would have been impractical on that uneven ground. Laying 240 feet of track, after finding enough ground space free from hummocks, was a considerable job. But frequently, after the track was laid, the wind would change its direction, and then all the work had to be done over. After a few times, the brothers gave up trying to use so long a track, and ordinarily used one of only 160 feet.

The Huffman field was filled with mounds ranging from six inches to a foot high. Only a few areas without mounds were suitable for a 240-foot track. Plus, landing wheels, like those used later, would have been unworkable on that uneven terrain. Setting up 240 feet of track, once they found enough space clear of mounds, was a big task. But often, after laying the track, the wind would shift direction, and all the work would have to be redone. After a few attempts, the brothers gave up on using such a long track and usually used one that was only 160 feet.

As steady winds of eleven miles an hour, the least that would do for starting from a 160-foot track, were not frequent, the Wrights had to be in readiness to take advantage of occasional gusts of strong wind. With their machine on the track, they waited until they could “see” a flurry of wind coming—that is, until they could see weeds being agitated by the wind in the distance. Then they would start the motor and run the machine down127 the track to meet the wind gust when it reached the end of the rail. In that way they sometimes succeeded in making a start on a day generally calm. But one such start ended disastrously, and Orville, who was piloting the machine, had one of his narrowest escapes. When the machine first met the flurry of wind, it rose rapidly, but a second later it was on the ground with the wings pointing vertically into the air. It had dived at a steep angle, throwing Orville forward to the ground. The upper wing spar came down across the middle of his back. But luckily, a section about two feet wide, just wide enough to miss hitting him, was broken out. No other damage was done to the spar, and the Wrights could never account for the seemingly miraculous breakage that provided a space for safety over the very place where Orville lay on the ground. After that accident, Charlie Taylor, who had seen other narrow escapes, gloomily told the neighbors across the road that every time he saw one of the brothers start on a flight he felt that he was seeing him alive for the last time.

With steady winds of eleven miles per hour, which was the minimum needed to launch from a 160-foot track, not being common, the Wright brothers had to be ready to take advantage of occasional strong gusts. With their plane on the track, they waited until they could “see” a gust approaching—that is, until they noticed weeds being disturbed by the wind in the distance. Then they would start the engine and run the plane down the track to meet the gust when it reached the end of the rail. This way, they occasionally managed to take off on otherwise calm days. However, one of those attempts ended badly, and Orville, who was piloting, had a close call. When the plane first encountered the gust, it quickly shot up, but a second later, it crashed back down with the wings pointed straight up. It dove at a sharp angle, throwing Orville forward onto the ground. The upper wing spar landed across the middle of his back. Luckily, a section about two feet wide, just enough to avoid hitting him, broke away. No other damage was done to the spar, and the Wrights could never explain the seemingly miraculous break that created a gap for Orville’s safety right where he lay. After that accident, Charlie Taylor, who had witnessed other near misses, sadly told the neighbors across the street that every time he saw one of the brothers preparing for a flight, he felt like he was seeing him alive for the last time.

Early in July the Wrights made alterations in the machine which located the center of gravity farther toward the rear than it had been before. In the first trial after those alterations, the machine, after leaving the track, kept turning up more and more and looked as if it were going to loop the loop. The center of gravity was so far back that the front elevator, even when turned to its limit, could not check the upward turn. While pointing vertically upward, the machine came to a stop and then began to slide backward. By the time it reached the ground it was once more so nearly level that if the skids128 had had a slight upward bend at their rear ends, the landing might have been made without damage. As it was, the rear ends of the skids dug into the ground; but the damage was slight.

Early in July, the Wrights made changes to the machine, moving the center of gravity further back than it had been before. In the first trial after those changes, the machine, after leaving the track, kept tilting up more and more, looking like it was going to do a loop. The center of gravity was so far back that the front elevator, even when adjusted to its limit, couldn’t stop the upward tilt. While pointing straight up, the machine stalled and then began to slide backward. By the time it hit the ground, it was almost level again, so if the skids128 had a slight upward bend at their back ends, the landing might have been smooth. As it was, the back ends of the skids dug into the ground, but the damage was minimal.

Before their experiments had progressed far in 1904 the Wrights saw that a better method of launching the machine was needed. They decided that a derrick with a falling weight would be the simplest and cheapest device. A 1,600-pound weight, falling a distance of 16½ feet, was so geared with ropes and pulleys that it produced a 350-pound pull on the machine through a distance of 49½ feet. By this arrangement the machine could be put into the air after a run of only 50 feet, even in a dead calm. Shifting the track was now seldom necessary.

Before their experiments had advanced much in 1904, the Wrights realized that they needed a better way to launch the machine. They decided that a derrick with a falling weight would be the simplest and cheapest option. A 1,600-pound weight, dropping from a height of 16½ feet, was set up with ropes and pulleys to generate a 350-pound pull on the machine over a distance of 49½ feet. With this setup, the machine could take off after only a 50-foot run, even in still conditions. Changing the track was now rarely needed.

Up to the time the derrick catapult was ready for its first trial on September 7, less than forty starts had been made and many of them failed for lack of speed. But now the length of the flights increased rapidly. The shorter flights had been in almost a straight line, but as the lengths of the flights increased it was necessary to make turns to stay within the field. Then a new trouble—or rather an old one that supposedly had been overcome at Kitty Hawk—began to bother the Wrights. Often in making a short turn they suddenly found themselves in a tail-spin which ended in a crash requiring days, or even weeks, for repairs. They soon learned what it was in making the turn that caused the tail-spin; but they found it difficult to avoid, because they had no way of knowing at what angle the air was striking the machine. This led to the “invention” of the first instrument129 for guidance of a pilot in flying. They simply attached a short piece of string to the crossbar beneath the front elevator. When the machine traveled directly forward the string trailed straight backward; but when the machine slipped to either side the string blew to one side or the other and indicated approximately the amount of the side slip. By close observance of this string it was possible to avoid entirely the danger of tail-spins, but the pilot learning to fly had so many things to attend to, so it seemed to him, that he sometimes neglected to watch the string closely enough.

Up until the derrick catapult was ready for its first trial on September 7, there had been fewer than forty attempts made, many of which failed due to a lack of speed. However, the length of the flights quickly increased. The shorter flights had gone almost in a straight line, but as the flights got longer, it became necessary to make turns to stay within the field. Then, a new problem—or rather, an old one that they thought they had solved at Kitty Hawk—started to trouble the Wrights. Often, during a short turn, they unexpectedly found themselves in a tailspin, which ended in a crash that required days or even weeks for repairs. They soon figured out what was causing the tailspin during the turn; however, they found it hard to avoid because they had no way of knowing at what angle the air was hitting the machine. This led to the “invention” of the first instrument129 for pilot guidance in flying. They simply attached a short piece of string to the crossbar beneath the front elevator. When the machine went straight forward, the string trailed straight back; but when the machine slipped to either side, the string blew to one side or the other, indicating approximately how much side slip there was. By closely watching this string, it became possible to completely avoid the danger of tailspins, but the pilot learning to fly often had so many things to manage that it sometimes felt like he neglected to watch the string closely enough.

After it was found that the derrick permitted the plane to be launched at any time, the Wrights often let the machine stand on the track during the day with the weights raised, ready to start at a moment’s notice. One day in early November, while idly strolling in front of the track, Orville thought he saw a slight movement of the plane on the track. A more careful look did not confirm his first impression; nevertheless he turned and leisurely walked towards the plane. When within a few steps of it he saw that it actually was in motion. The wire that held it against the pull of the 1,600-pound weight was attached to a stake driven into the soft ground several feet. That stake was slowly coming out of the ground! By leaping upon one of the skids, Orville reached the elevator control lever in time to prevent the machine from rising as it rushed down the track. A strained shoulder was the principal damage, though the machine suffered a few slight breakages.

After it was discovered that the derrick allowed the plane to be launched at any moment, the Wrights often left the machine on the track during the day with the weights raised, ready to go at a moment’s notice. One day in early November, while casually walking in front of the track, Orville thought he saw a slight movement of the plane on the track. A closer look didn’t confirm his initial impression; however, he turned and leisurely walked toward the plane. When he was just a few steps away, he saw that it actually was moving. The wire holding it against the pull of the 1,600-pound weight was attached to a stake driven into the soft ground several feet. That stake was slowly coming out of the ground! By jumping onto one of the skids, Orville reached the elevator control lever just in time to stop the machine from lifting as it sped down the track. A strained shoulder was the main injury, although the machine sustained a few minor damages.

Not until the 51st flight in 1904, when the machine stayed in the air one minute and one second, did the130 Wrights beat their best Kitty Hawk record of 59 seconds. The first complete circle was not made until September 20. But toward the end of the 1904 experiments, there were two five-minute flights. In each of these the machine circled the field four or five times without stopping.

Not until the 51st flight in 1904, when the aircraft stayed in the air for one minute and one second, did the 130 Wright brothers surpass their best Kitty Hawk record of 59 seconds. The first full circle wasn’t accomplished until September 20. However, by the end of the 1904 experiments, there were two five-minute flights. In each of these, the aircraft circled the field four or five times without stopping.

The total flying time during 1904 was only 45 minutes. But the knowledge and experience gained from that three quarters of an hour were of almost inestimable importance.

The total flying time in 1904 was just 45 minutes. But the knowledge and experience gained from that three-quarters of an hour were incredibly valuable.

Toward the end of May, 1905, the Wrights began assembling a machine all new with the exception of the motor and the propeller-driving mechanism. Strengthening of the structure at places where the previous machine had been too weak in making landings added about 25 pounds more weight. The principal changes, however, were in wing design, addition of some new features not in the earlier machines, and in making the wing-warping and operation of the tail rudder independent of each other. The camber of the wings was changed from 1-25, used in 1904, back to 1-20 as used in 1903 at Kitty Hawk. This change was to enable the machine to get off at a slower speed.

Toward the end of May 1905, the Wright brothers started putting together a completely new machine, except for the motor and the propeller mechanism. They reinforced the structure in areas where the previous machine had been too weak for landings, which added about 25 pounds to the weight. The main changes included modifications to wing design, the addition of some new features not present in earlier models, and making the wing-warping and tail rudder operation independent from each other. The camber of the wings was changed from 1-25, which was used in 1904, back to 1-20, as used in 1903 at Kitty Hawk. This change was made to allow the machine to take off at a slower speed.

The most radical change was the addition of two semi-circular vanes, called “blinkers,” between the two surfaces of the front elevator. This device was later patented by the Wrights. The purpose of the “blinkers” was to assist the rear rudder in overcoming the unequal resistances of the two wings when they were warped while making a turn. Gliding experiments in 1902 had shown that the pressure on a fixed vane in the rear of131 the wings tended to speed the higher wing when the machine slipped in the direction of the lower wing, and caused a tail-spin. The vane had to be made movable to relieve this pressure. It now occurred to the Wrights that if a fixed vane were placed in front of the wings, instead of behind them, its effect would be the reverse of that when the vane was in the rear, and that there would be less need of operating the rear rudder to overcome the unbalanced resistance of the two wings. Moreover, when the machine slipped inward while “banking” a turn, the speed of the low wing would be increased and a tail-spin avoided. The operation of the rear rudder could now be made independent of the wing-warp without danger.

The most significant change was the addition of two semi-circular vanes, known as “blinkers,” between the two surfaces of the front elevator. The Wrights later patented this device. The purpose of the “blinkers” was to help the rear rudder deal with the uneven resistance of the two wings when they were warped while turning. Gliding tests in 1902 had shown that pressure on a fixed vane at the back of the wings tended to speed up the higher wing when the aircraft tilted toward the lower wing, which caused a tailspin. The vane needed to be movable to relieve this pressure. The Wrights realized that placing a fixed vane in front of the wings instead of behind them would have the opposite effect, reducing the need to operate the rear rudder to balance the resistance of the two wings. Additionally, when the aircraft tilted inward while turning, the speed of the lower wing would increase, preventing a tailspin. Now, the operation of the rear rudder could function independently of the wing-warp without any risk.

It was found that the “blinkers” entirely removed the danger of tail spinning but that they added to the difficulty of steering, both when flying straight and when making turns. Consequently they were not used in all the flights. (In modern planes the effect of the “blinkers” is gained by extending the fuselage far out in front of the wings.)

It was discovered that the "blinkers" completely eliminated the risk of tail spinning, but they also made steering more challenging, both when flying straight and while turning. As a result, they were not used on every flight. (In modern planes, the effect of the "blinkers" is achieved by extending the fuselage well past the wings.)

Though tail-spins could be avoided without use of “blinkers,” by carefully observing the little piece of string that indicated side slip, yet they sometimes occurred. In one flight, in September, 1905, when the “blinkers” were not on the machine, Orville suddenly discovered he was in a tail-spin and that he was about to come down in the top of a forty-foot thorn tree. The thorns were several inches long, and the idea of falling through them to the ground was not alluring. Orville quickly turned the machine into an almost vertical dive132 while turning in a circle 50 to 100 feet in diameter. The inner wing of the machine hit a branch of the tree, imbedding a thorn in an upright, and tore off the branch. In the dive, the higher wing, because of much greater speed, soon passed the lower wing in the downward plunge and itself became the low wing. The machine thus was in a steep bank with the high side toward the tree, just the opposite from what it had been before. When Orville turned the elevator to avoid striking the ground, the machine turned suddenly and unexpectedly away from the tree, because, in this steeply banked condition, the elevator exerted more pressure laterally than it did vertically. (When an aeroplane is banked to 45 degrees the elevator serves just as much for a rudder as for an elevator, and the rudder just as much for an elevator as for a rudder.) Though the machine lightly touched the ground, Orville flew it on back to the hangar, where the branch of the tree was found still clinging to the upright. It had been the practice of the Wrights to dive the machine to recover speed in a stall; but this quick recovery was from an entirely different cause—the great difference in the speeds of the two wings.

Although tail-spins could be avoided without using "blinkers," by carefully watching the small piece of string that indicated side slip, they sometimes happened. In one flight in September 1905, with the "blinkers" off the machine, Orville suddenly realized he was in a tail-spin and was about to crash into the top of a forty-foot thorn tree. The thorns were several inches long, and the thought of falling through them was not appealing. Orville quickly turned the machine into an almost vertical dive while turning in a circle 50 to 100 feet in diameter. The inner wing hit a branch of the tree, embedding a thorn upright and tearing off the branch. During the dive, the higher wing, due to much greater speed, quickly passed the lower wing and became the low wing. The machine ended up in a steep bank with the high side facing the tree, which was the opposite of its previous position. When Orville adjusted the elevator to avoid hitting the ground, the machine unexpectedly turned away from the tree because, in this steeply banked position, the elevator applied more lateral pressure than vertical. (When an airplane is banked at 45 degrees, the elevator works as much as a rudder as it does as an elevator, and the rudder functions as much as an elevator as it does as a rudder.) Although the machine lightly touched the ground, Orville flew it back to the hangar, where the branch of the tree was found still attached upright. The Wrights had a practice of diving the machine to regain speed during a stall; however, this quick recovery was due to the significant difference in speeds between the two wings.

An amusing flight by Orville in 1905 was made after some weeks of inactivity in flying and after the machine had undergone a number of changes since his last flight. When the machine left the starting rail it began pitching like a bucking broncho. Orville wanted to stop, but at every plunge the plane came down so steeply he did not dare attempt a landing. As soon as he got control of the machine, after going three or four hundred feet,133 he did land safely. Wilbur rushed up to inquire why he had stopped just when he had really got going. Orville explained that he would have landed even sooner, but had taken the first opportunity to stop without smashing the machine to pieces.

An amusing flight by Orville in 1905 happened after several weeks of not flying and after the machine had gone through several changes since his last flight. When the machine left the starting rail, it started pitching like a bucking bronco. Orville wanted to stop, but with every plunge, the plane came down so steeply that he didn't dare try to land. Once he gained control of the machine, after flying about three or four hundred feet,133 he landed safely. Wilbur hurried over to ask why he had stopped just when he was really getting into it. Orville explained that he would have landed even sooner, but he took the first chance to stop without wrecking the machine.

Though the rudder and wing-warp were entirely independent of each other in all the flights of 1905, the Wrights several years later resumed having the two controls interconnected, to operate together, but with an arrangement needed for modifying their relationship when making turns.

Though the rudder and wing-warp were completely independent of each other in all the flights of 1905, the Wrights several years later went back to having the two controls connected to work together, but with a setup that allowed for adjusting their relationship when turning.

Another change that improved control of the 1905 machine was in giving the wings considerably less angle at the tips than in the central part. By this arrangement, the tips stalled later than other parts of the wings and some lateral control remained even after the central part of the wings were in a stalled condition.

Another change that improved control of the 1905 machine was giving the wings a significantly smaller angle at the tips compared to the center. With this setup, the tips stalled later than other areas of the wings, allowing for some lateral control even after the center of the wings was stalled.

After the Wrights had made the blades of their propellers much wider and thinner than the original ones, they discovered that the performance of the propellers in flight did not agree closely with their calculations, as in the earlier propellers. They could see only one reason for this, and that was that the propeller blades twisted from their normal shape under pressure in flight. To find out quickly if this was the real reason, they fastened to each blade a small surface, like an elevator, out behind the blades, set at an angle to balance the pressures that were distorting the blades. They called the surfaces “little jokers.” When they found that the “little jokers” cured the trouble, they dispensed with them and began134 to give the blades a backward sweep, which served the same purpose.

After the Wrights made their propeller blades much wider and thinner than the original ones, they found that the propellers' performance in flight didn't match their calculations, unlike the earlier propellers. They could see only one reason for this: the propeller blades twisted from their normal shape under pressure in flight. To quickly determine if this was the actual issue, they attached a small surface to each blade, similar to an elevator, positioned at an angle to balance the pressures that were distorting the blades. They called these surfaces “little jokers.” Once they discovered that the “little jokers” solved the problem, they eliminated them and started giving the blades a backward sweep, which accomplished the same goal. 134

In the flying season of 1905, the control of the machine was much improved by increasing the area of the front rudder from 50 to 85 square feet, and by moving it to nearly twice the distance from the wings. This added distance made response to the movement of the rudder slower, and control of the machine much easier.

In the flying season of 1905, controlling the machine significantly improved by enlarging the front rudder from 50 to 85 square feet and moving it almost twice as far from the wings. This increased distance made the response to rudder movement slower, which made controlling the machine much easier.

The lateral control also was improved by enlarging the rear rudder from 20 to 34 square feet, and by moving it to a position three feet farther back of the wings.

The lateral control was also improved by increasing the rear rudder from 20 to 34 square feet and by relocating it to a position three feet further back from the wings.

On account of frequent rains, the soggy condition of the field, and other weather conditions, only nine attempts to fly were made in the first two months of experiments in 1905, and only three of these lasted for as much as ten seconds. But after the first of September progress was rapid.

Due to frequent rain, the wet state of the field, and other weather factors, there were only nine flight attempts in the first two months of experiments in 1905, and only three of those lasted for up to ten seconds. However, after September 1st, progress moved quickly.

During all this time, the newspapers had continued to let the Wrights alone. Indeed, the failure of the newspapers in Dayton and elsewhere to say much about the history-making experiments at Huffman field was often used as an argument to prove that there couldn’t be any truth in the rumors that men had actually contrived a successful flying-machine. “You couldn’t have kept a thing like that secret. Some reporter surely would have heard about it!”

During all this time, the newspapers had continued to leave the Wrights alone. In fact, the lack of coverage from the newspapers in Dayton and elsewhere about the groundbreaking experiments at Huffman Field was often used as evidence that there couldn’t be any truth to the rumors that people had actually created a successful flying machine. “You couldn’t keep something like that secret. Some reporter would have definitely heard about it!”

Dan Kumler, who was city editor of James M. Cox’s Daily News, in Dayton, during those early years of flying, recalled in 1940, not long before his death, that many people who had been on interurban cars passing135 the Huffman field and seen the Wrights in the air used to come to the Daily News office to inquire why there was nothing in the paper about the flights.

Dan Kumler, who was the city editor of James M. Cox’s Daily News in Dayton during the early days of flying, remembered in 1940, shortly before his death, that many people who had been on interurban cars passing135 the Huffman field and saw the Wrights in the air often came to the Daily News office to ask why there was nothing in the paper about the flights.

“Such callers,” said Kumler, “got to be a nuisance.”

“Those callers,” said Kumler, “are such a nuisance.”

“And why wasn’t there anything in the paper?” Kumler was asked.

“And why wasn’t there anything in the paper?” Kumler was asked.

“We just didn’t believe it,” he said. “Of course you remember that the Wrights at that time were terribly secretive.”

“We just didn’t believe it,” he said. “Of course you remember that the Wrights were really secretive back then.”

“You mean they were secretive about the fact that they were flying over an open field?”

“You mean they were keeping it a secret that they were flying over an open field?”

“I guess,” said Kumler, grinning, after a moment’s reflection, “the truth is that we were just plain dumb.”

“I guess,” said Kumler, grinning after a moment of thought, “the truth is that we were just really stupid.”

James M. Cox, owner of the Daily News, has likewise confessed that “none of us believed the reports” of flights.

James M. Cox, owner of the Daily News, has also admitted that “none of us believed the reports” of flights.

One fact that kept the earlier flights relatively inconspicuous was that much of the time the plane was within 10 or 15 feet of the ground. Only occasionally was it up as high as 50 feet. There were no flights beyond the field itself, because if necessary to make a forced landing elsewhere, dragging the machine back to its shed might not have been easy.

One thing that made the early flights pretty unnoticeable was that most of the time the plane was only 10 or 15 feet off the ground. It only flew as high as 50 feet from time to time. There were no flights outside the field itself, because if there was a need to make an emergency landing somewhere else, getting the plane back to its hangar could be difficult.

The Wrights had aimed at first to avoid being in the air when an interurban car was passing. But that precaution soon proved to be unnecessary. Few people ever paid any attention to the flights. One day, though, the general manager of the interurban line was on a passing car when the plane was in the air and he ordered the car stopped. He and the chief engineer of the line, who136 was with him, got off and stayed a while to look at the incredible sight.

The Wrights initially tried to stay clear of the air when an interurban car was passing by. However, that caution quickly became unnecessary. Hardly anyone ever noticed the flights. One day, though, the general manager of the interurban line was on a passing car when the plane was in the sky, and he ordered the car to stop. He and the chief engineer of the line, who was with him, got off and watched for a while, amazed by the incredible sight.

Across the Springfield pike from the field lived the Beard family, tenants on the Torrence Huffman farm. Whenever the plane landed abruptly Mrs. Beard was likely to dash across the road with a bottle of arnica, feeling sure it would be needed, as sometimes it was. But there were few other visitors.

Across the Springfield pike from the field lived the Beard family, who rented from the Torrence Huffman farm. Whenever the plane landed suddenly, Mrs. Beard would rush across the road with a bottle of arnica, confident it would be needed, as it sometimes was. But there weren’t many other visitors.

Two somewhat mysterious visitors did come, however. The Wrights saw two men wandering about near-by fields during most of one day and thought they must be hunters, though there was not much game thereabouts. Again the next day the two strangers were seen, and finally they came across the field to where the Wrights were adjusting their machine. One of them carried a camera. They asked if visitors were permitted.

Two somewhat mysterious visitors did come, however. The Wrights saw two men wandering around nearby fields for most of one day and thought they must be hunters, even though there wasn't much game in the area. The following day, the two strangers were spotted again, and eventually, they approached the field where the Wrights were working on their machine. One of them had a camera. They asked if visitors were allowed.

“Yes, only we’d rather you didn’t take any pictures,” one of the brothers courteously replied.

“Yeah, but we’d prefer if you didn’t take any photos,” one of the brothers politely responded.

The man with the camera set it down off to one side, twenty feet away, as if to make it plain that he was not trying to sneak any shots. Then he inquired if it was all right to look into the shed. The brothers told him to make himself right at home. Was he a newspaperman? No, he said, he was not a newspaperman, though he sometimes did writing for publication. That was as near as he came to introducing himself. After the callers had gone, Charlie Taylor, the Wrights’ mechanic, said: “That fellow’s no writer. At least he’s no ordinary writer. When he looked at the different parts of the machine he called them all by their right names.”

The guy with the camera put it down off to the side, about twenty feet away, like he wanted to make it clear he wasn’t trying to sneak any photos. Then he asked if it was okay to check out the shed. The brothers told him to feel free. Was he a journalist? No, he said he wasn't a journalist, although he sometimes did write for publications. That was as close as he got to introducing himself. After the visitors left, Charlie Taylor, the Wrights’ mechanic, said: “That guy’s not a writer. At least, he’s not an ordinary writer. When he looked at the different parts of the machine, he called them all by their correct names.”

Later the Wrights learned the identity of the visitor.137 Orville chanced to see a picture of him in a New York newspaper. His identity was confirmed some time afterward when he and Orville were formally introduced to each other—though neither referred to their previous meeting. The man had been chief engineer for Professor Langley of the Smithsonian Institution.

Later, the Wrights found out who the visitor was.137 Orville happened to see a photo of him in a New York newspaper. His identity was confirmed later when he and Orville were formally introduced—though neither mentioned their previous encounter. The man had been the chief engineer for Professor Langley at the Smithsonian Institution.

Toward the end of September, the Wrights were able greatly to increase their distances. On September 26, there was an uninterrupted flight of 11⅛ miles in 18 minutes and 9 seconds; and on September 29, one of 12 miles in 19 minutes 55 seconds. Then, on October 3, there was a new record of 15¼ miles in 25 minutes 5 seconds; another, on October 4, of 20¾ miles in 33 minutes 17 seconds; and finally, on October 5, 24⅕ miles in 38 minutes 3 seconds.

Toward the end of September, the Wrights significantly increased their flight distances. On September 26, they made an uninterrupted flight of 11⅛ miles in 18 minutes and 9 seconds; and on September 29, they flew 12 miles in 19 minutes and 55 seconds. Then, on October 3, they set a new record of 15¼ miles in 25 minutes and 5 seconds; another record on October 4 of 20¾ miles in 33 minutes and 17 seconds; and finally, on October 5, they achieved 24⅕ miles in 38 minutes and 3 seconds.

The flights of October 3 and 4 would have been longer except that certain bearings had become overheated. By October 5 the inventors had added more grease cups where needed and also installed a larger gas tank. But the tank was not full when that final test began and the flight ended because the fuel was exhausted. It was the intention of the Wrights to make one more test and put the record at more than an hour; but now for the first time the miracle of flight actually began to attract more spectators and the brothers decided it might be prudent to quit for the season before details of the machine’s construction became public knowledge. However, there was one more short flight—just one circle of the field—on October 16.

The flights on October 3 and 4 would have lasted longer if certain bearings hadn’t overheated. By October 5, the inventors had added more grease cups where needed and also installed a bigger gas tank. However, the tank wasn’t full when that final test started, and the flight ended because they ran out of fuel. The Wrights had planned to do one more test to push the record past an hour, but for the first time, the wonder of flight started to draw more spectators, and the brothers thought it might be wise to call it quits for the season before the details of the machine’s design got out. Still, there was one more short flight—just one circle of the field—on October 16.

After the close of the 1905 experiments, a test of the engine showed that it produced more power than when138 first put into use. This gain was attributed to the increased smoothness of the cylinders and pistons produced by wear.

After the 1905 experiments wrapped up, a test of the engine revealed that it generated more power than when it was first put into service. This improvement was credited to the smoother cylinders and pistons resulting from wear.

Looking back over their experiments, the Wrights noted that “in 1903, 62 pounds per horsepower were carried at a speed of 30 miles an hour; in 1904, 53 pounds at 34 miles an hour; and in 1905, 46 pounds at 38 miles an hour.” Thus the weight carried per horsepower was in inverse ratio to the speed—the smaller the weight carried per horsepower, the higher the speed. That seems obvious enough now, but at the time the Wrights were making these experiments many scientists still accepted the “Langley Law,” that the greater the speed, the less horsepower necessary.

Looking back at their experiments, the Wrights noted that “in 1903, 62 pounds per horsepower were carried at a speed of 30 miles an hour; in 1904, 53 pounds at 34 miles an hour; and in 1905, 46 pounds at 38 miles an hour.” So, the weight carried per horsepower was inversely related to the speed—the lower the weight carried per horsepower, the higher the speed. That seems pretty obvious now, but at the time the Wrights were conducting these experiments, many scientists still believed in the “Langley Law,” which stated that the faster the speed, the less horsepower was needed.

The Wrights now knew that the airplane would have practical use—though they did not foresee how safely trans-Atlantic flights would be made—and not even in their wildest dreams did they think of anyone ever flying at night.

The Wrights now realized that the airplane would be useful—though they didn’t anticipate how safely trans-Atlantic flights would be conducted—and not even in their wildest dreams did they imagine anyone flying at night.


Though Dayton newspapermen had not besieged the Huffman pasture for details of the great news story lurking there during 1904-’05, one of their number had occasionally been in contact with the Wrights. That was Luther Beard—no kin to the other Beards mentioned—managing editor of the Dayton Journal. Besides being a newspaper editor, Beard also taught school at Fairfield, about two miles from the Huffman farm, and went back and forth by the interurban car line that passed the field where the Wrights were making history. It sometimes happened that on the trip to Dayton he was on the same car with one or both of the Wright brothers, returning from their flights.

Although Dayton newspaper reporters didn’t crowd the Huffman pasture to dig up details of the big news story brewing there during 1904-’05, one of them occasionally connected with the Wrights. That was Luther Beard—unrelated to the other Beards mentioned—managing editor of the Dayton Journal. In addition to being a newspaper editor, Beard also taught at a school in Fairfield, about two miles from the Huffman farm, and frequently traveled back and forth on the interurban car line that passed by the field where the Wrights were making history. Sometimes, he would find himself on the same car as one or both of the Wright brothers, returning from their flights.

“I used to chat with them in a friendly way and was always polite to them,” Beard recalled, years afterward, chuckling over the joke on himself, “because I sort of felt sorry for them. They seemed like well-meaning, decent enough young men. Yet there they were, neglecting their business to waste their time day after day on that ridiculous flying-machine. I had an idea that it must worry their father.”

“I used to talk to them casually and always treated them kindly,” Beard remembered years later, laughing at himself, “because I kind of felt sorry for them. They seemed like good-hearted, decent young guys. Yet there they were, ignoring their responsibilities and wasting their time day after day on that ridiculous flying machine. I had a feeling it must bother their dad.”

In these conversations, neither the Wrights nor Beard was likely to bring up the subject of aviation. The Wrights showed no eagerness to talk about what they140 were doing, and Beard kept to subjects he considered more sensible. But one day, in the autumn of 1904, several of the school children told him they had seen the Wrights flying all around the field. Maybe, thought Beard, that might make a little local item for the paper. When he next saw Orville Wright on the car, a day or two afterward, Beard asked him if it was true that they had been flying all the way around the field.

In these conversations, neither the Wrights nor Beard was likely to mention aviation. The Wrights weren’t interested in discussing their work, and Beard preferred to stick to topics he thought were more practical. But one day, in the fall of 1904, some of the school kids told him they had seen the Wrights flying all around the field. Maybe, Beard thought, that could be a small local story for the paper. When he saw Orville Wright in the car a day or two later, Beard asked him if it was true that they had been flying all the way around the field.

Oh, yes, Orville admitted, they often did that. Then Orville began to talk about something else.

Oh, yes, Orville admitted, they often did that. Then Orville started to talk about something else.

Evidently, Beard decided, the fact that an airplane could be flown under perfect control in circles didn’t amount to anything after all. Orville Wright himself didn’t seem to think it was unusual or important. There was no use putting it in the paper. One more reason perhaps for not printing much in the Journal about what the poor, misguided Wrights were doing was that such items were annoying to Frank Tunison, another of the editors—the same Tunison who had turned down the story of the first flight at Kitty Hawk. Having decided that the Wrights were not news, he was naturally irritated to see any reference to them, even on an inside page. “Why do we print such stuff?” he would ask.

Clearly, Beard realized that the fact that an airplane could be flown in perfect circles didn’t really mean much after all. Even Orville Wright didn’t seem to find it unusual or significant. There was no point in putting it in the paper. Perhaps another reason for not publishing much in the Journal about what the unfortunate, misguided Wrights were up to was that it annoyed Frank Tunison, another editor—the same Tunison who had rejected the story of the first flight at Kitty Hawk. Having concluded that the Wrights were not news, he was naturally frustrated to see any mention of them, even on an inside page. “Why do we print such stuff?” he would ask.

However, Beard said to Orville, as they rode along on the car: “If you ever do something unusual be sure and let us know.” From time to time he went or telephoned to the Wright home to find out if by remote chance the brothers had done anything worth mentioning.

However, Beard said to Orville, as they rode along on the car: “If you ever do something unusual, be sure to let us know.” From time to time, he would go to or call the Wright home to see if, by any chance, the brothers had done anything noteworthy.

“Done anything of special interest lately?” he asked Orville Wright one evening.

“Done anything interesting lately?” he asked Orville Wright one evening.

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“Oh, nothing much,” replied Orville. “Today one of us flew for nearly five minutes.”

“Oh, nothing much,” Orville replied. “Today one of us flew for almost five minutes.”

“Where did you go?” asked Beard.

“Where did you go?” asked Beard.

“Around the field.”

“Around the area.”

“Oh! Just around the field. I see. Well, we’ll keep in touch with you.”

“Oh! Just around the field. Got it. Well, we’ll stay in touch with you.”

Doubtless, reflected the newspaperman, the Wrights’ circling of Mr. Huffman’s pasture for five minutes was pretty good for two local boys. But it was hardly a thing to take up space in the paper. Hadn’t Santos-Dumont circled the Eiffel Tower, and flown all around Paris? One more newspaper writer, like hundreds of others, had failed to distinguish between an airship with a gas bag and a flying-machine heavier than air. (At the time of the thirty-eight-minute flight in 1905, however, Luther Beard was among the spectators at the field.)

Without a doubt, the journalist thought, the Wright brothers flying around Mr. Huffman’s pasture for five minutes was pretty impressive for two local guys. But it wasn’t really newsworthy. Didn’t Santos-Dumont fly around the Eiffel Tower and all over Paris? Another newspaper writer, like so many others, couldn’t tell the difference between an airship with a gas bag and a heavier-than-air flying machine. (At the time of the thirty-eight-minute flight in 1905, though, Luther Beard was among the spectators at the field.)

Another bright young newspaperman in that vicinity didn’t grasp quite the full significance of what the Wrights were doing. The Dayton Journal had a branch office at Xenia, about eleven miles from where the Wrights did their flying. The reporter in charge of that branch office was an enterprising lad, just out of college, who answered to the name of Fred C. Kelly. His eagle eye spotted an item about the Wrights and their flying-machine in a country weekly, the Osborn Local, published in a village a mile or two from the Huffman field. Did he investigate the story? No, he didn’t need to investigate it to feel sure it must be nonsense.

Another bright young journalist in that area didn’t fully understand the significance of what the Wrights were doing. The Dayton Journal had a branch office in Xenia, about eleven miles from where the Wrights flew. The reporter in charge of that branch was an ambitious guy, just out of college, named Fred C. Kelly. His sharp eye caught a story about the Wrights and their flying machine in a local weekly, the Osborn Local, published in a village a mile or two from the Huffman field. Did he look into the story? No, he didn’t feel the need to investigate; he was sure it had to be nonsense.

The fact of human flight was still unacceptable and ridiculous even to professional humorists. The humorous weekly, Puck, in its issue of October 19, 1904—nearly142 a month after that first circular flight—published a joke, inspired presumably by absurd reports about two young men at Dayton:

The idea of human flight was still seen as crazy and absurd, even by professional comedians. The humor magazine, Puck, in its October 19, 1904 issue—almost142 a month after the first circular flight—published a joke, likely inspired by ridiculous reports about two young men in Dayton:

“When,” inquired the friend, “will you wing your first flight?”

“When,” asked the friend, “will you take your first flight?”

“Just as soon,” replied the flying-machine inventor, “as I can get the laws of gravitation repealed.”

“Just as soon,” replied the inventor of the flying machine, “as I can get the laws of gravity repealed.”

The significance of the first complete circular flight, on September 20, 1904, was not overlooked, however, by one man who witnessed it. That was A. I. Root, the Medina bee man. He had traveled by automobile the day before to Xenia, where he had a relative, and then went to the Huffman field, only a few miles away, to become better acquainted with the Wrights. His trip of 175 miles from Medina without serious difficulty with his machine was then almost a feat in itself. He had not needed any repairs until he reached Xenia. (Incidentally, he had remonstrated with the repair man he dealt with there, Mr. Baldner, for his frequent use of profanity; and he was impressed by the fact that no matter how puzzling or discouraging the problem, the Wrights never uttered a profane word.) After going to Huffman field, Root became more than ever interested in the Wrights and as he wished to see all he could of their work for a few days, he arranged for board and lodging at the Beard home across the road. (A little later he even offered to pay the Wrights $100 for material he had obtained from them for articles about their work—but they refused to accept any payment.)

The importance of the first complete circular flight on September 20, 1904, wasn't missed by one person who saw it: A. I. Root, the bee expert from Medina. The day before, he had driven to Xenia to visit a relative and then headed to Huffman Field, just a few miles away, to get to know the Wright brothers better. His 175-mile trip from Medina without any major issues with his car was quite an achievement. He hadn’t needed any repairs until he got to Xenia. (By the way, he had expressed his disapproval to the repairman, Mr. Baldner, about his frequent swearing; he was also struck by how the Wrights never used profanity, no matter how challenging or frustrating the situation.) After visiting Huffman Field, Root became even more fascinated by the Wrights and wanted to see as much of their work as possible over the next few days, so he arranged for meals and a place to stay at the Beard house across the street. (Later on, he even offered the Wrights $100 for materials he’d gotten from them for articles about their work, but they declined to accept any money.)

Root knew that the circular flight he had just witnessed was of prime importance, for it demonstrated143 that the airplane would have practical use. He wrote an eye-witness account of what the Wrights had done for the January 1 (1905) issue of his magazine, Gleanings in Bee Culture, and sent a marked copy to the editor of the Scientific American, with a letter telling the editor he was free to reprint the article. The editor wrote back that he had not received the marked copy. So Root sent another. But when the editor of the Scientific American saw what Root had printed he paid no attention to it.

Root realized that the circular flight he had just seen was really significant because it proved that the airplane would be practically useful. He wrote a firsthand account of what the Wright brothers had achieved for the January 1, 1905, issue of his magazine, Gleanings in Bee Culture, and sent a marked copy to the editor of Scientific American, along with a letter letting the editor know he could reprint the article. The editor replied that he hadn’t received the marked copy, so Root sent another one. However, when the editor of Scientific American saw what Root had written, he ignored it.

Root continued to print articles about the Wrights in his magazine. In December, 1905, he published the fact that a great number of long flights had been made during the previous season, “one of 24 miles in 38 minutes,” probably the first publication of that event in the United States. At about the same time, in its issue of December 16, 1905, the Scientific American said, in an editorial headed “Retrospect for the Year”: “The most promising results (with the airplane) to date were those obtained last year by the Wright brothers, one of whom made a flight of over half a mile in a power-propelled machine.” Previously in the same editorial, though, was the assertion: “... the only successful ‘flying’ that has been done this year—must be credited to the balloon type.” By that time, the Wrights’ total flying distance was about 160 miles.

Root kept publishing articles about the Wright brothers in his magazine. In December 1905, he shared that many long flights had been achieved during the previous season, noting "one of 24 miles in 38 minutes," likely the first time this event was published in the United States. Around the same time, in its December 16, 1905 issue, the Scientific American commented in an editorial titled “Retrospect for the Year”: “The most promising results (with the airplane) to date were those achieved last year by the Wright brothers, one of whom flew over half a mile in a power-driven machine.” Earlier in the same editorial, however, it stated, “... the only successful ‘flying’ that has been done this year—must be credited to the balloon type.” By that point, the Wrights had flown a total distance of about 160 miles.

In its issue of January 13, 1906, in an article headed “The Wright Aeroplane and Its Fabled Performances,” the Scientific American commented skeptically on a letter written by the Wright brothers which had been published in a Paris automobile journal. In that letter the Wrights had given details of the long flights of late144 September and early October, 1905. In expressing its disbelief in the “alleged” flights described in the Wright letter, the Scientific American said: “If such sensational and tremendously important experiments are being conducted in a not very remote part of the country, on a subject in which almost everybody feels the most profound interest, is it possible to believe that the enterprising American reporter, who, it is well known, comes down the chimney when the door is locked in his face—even if he has to scale a fifteen-story skyscraper to do so—would not have ascertained all about them and published them broadcast long ago?”

In its January 13, 1906 issue, under the title “The Wright Aeroplane and Its Fabled Performances,” the Scientific American expressed skepticism about a letter from the Wright brothers that had appeared in a Paris automobile magazine. In that letter, the Wrights detailed their long flights from late September and early October 1905. Doubting the “alleged” flights mentioned in the Wright letter, the Scientific American remarked: “If such sensational and incredibly important experiments are taking place in a not too distant part of the country, on a subject that nearly everyone finds deeply interesting, can we really believe that the enterprising American reporter, who is known to find a way in even when the door is locked—no matter if he has to climb up a fifteen-story building to do it—wouldn't have discovered all about them and reported it widely a long time ago?”

A few weeks later, in February, 1906, the editor of the Scientific American wrote to the Wrights to inquire if there was any truth in reports that they were negotiating with the French Government. He enclosed in his letter a clipping of “The Wright Aeroplane and Its Fabled Performances.”

A few weeks later, in February 1906, the editor of the Scientific American wrote to the Wrights to ask if there was any truth to the rumors that they were in talks with the French Government. He included a clipping of “The Wright Aeroplane and Its Fabled Performances” with his letter.

The Wrights wrote in reply that since the Scientific American obtained the data of what it termed “alleged experiments” directly from a published letter signed by the Wright brothers, and since it did not discredit the authenticity of the letter, but only the truthfulness of the statements, they were at a loss to understand why the editor should desire further statements from such a source. They did not answer the inquiry about the negotiations with the French Government.

The Wrights responded that since Scientific American got its information about what it called “alleged experiments” directly from a letter signed by them, and since it didn’t question the authenticity of the letter but only the truth of the claims made, they were confused about why the editor wanted more information from that source. They didn’t address the question about the discussions with the French Government.

Most of the long flights in late September and early October, 1905, had been seen by Amos Stauffer, a farmer working in an adjoining field. But he went right ahead husking corn. Another witness, however, was145 more of a gossip. At one of the October flights, William Fouts, a Dayton druggist, was present, and the Wrights cautioned him not to say anything about what he had seen. But Fouts must have taken a few people into his confidence. In the afternoon of October 5, the Dayton Daily News had an article saying the Wrights were making sensational flights every day. The Dayton correspondent for the Cincinnati Post reported this to his paper which printed it the next day. A fairly good-sized crowd then went to the Huffman pasture. But when they found nothing going on there most of them decided that the reports must have been much exaggerated. Nothing more was said about the Wrights in Ohio papers for some time. John Tomlinson, a reporter on the Dayton Journal, and correspondent for out-of-town papers, offered $50 to Henry Webbert, friend of the Wrights, to let him know the date of their next flight. There was one more short flight on October 16, but no newspapermen or other onlookers were at the field.

Most of the long flights in late September and early October 1905 were witnessed by Amos Stauffer, a farmer working in a nearby field. But he kept on husking corn. Another witness, though, was more of a gossip. During one of the October flights, William Fouts, a druggist from Dayton, was present, and the Wrights warned him not to mention what he had seen. However, Fouts probably confided in a few people. On the afternoon of October 5, the Dayton Daily News ran an article claiming the Wrights were making sensational flights every day. The Dayton correspondent for the Cincinnati Post reported this to his paper, which published it the following day. A fairly large crowd then headed to the Huffman pasture. But when they found nothing happening there, most of them concluded that the reports must have been greatly exaggerated. There was no further mention of the Wrights in Ohio newspapers for a while. John Tomlinson, a reporter for the Dayton Journal and correspondent for out-of-town papers, offered $50 to Henry Webbert, a friend of the Wrights, to inform him of their next flight date. There was one more short flight on October 16, but no journalists or other spectators were at the field.

On March 12, 1906, the Wrights had sent to the Aero Club of America the following list of names of reputable men who had seen one or more of their flights: E. W. Ellis, assistant city auditor; Torrence Huffman, bank president; C. S. Billman, secretary, and W. H. Shank, treasurer of the West Side Building & Loan Association; William, Henry and Charles Webbert, in the plumbing business; Frank Hamburger, hardware dealer; Howard M. Myers, post-office employee; William Fouts and Reuben Schindler, druggists; William Weber, plumber; Bernard H. Lambers, of Dayton Malleable Iron Works. Besides those living in Dayton, were: O. F. Jamieson, traveling salesman, of East Germantown,146 Ohio; David Beard and Amos Stauffer, of Osborn; and Theodore Waddell, of the Census Bureau at Washington. The Wrights had a list of about sixty persons who had witnessed flights.

On March 12, 1906, the Wrights sent the Aero Club of America a list of respected individuals who had witnessed one or more of their flights: E. W. Ellis, assistant city auditor; Torrence Huffman, bank president; C. S. Billman, secretary; and W. H. Shank, treasurer of the West Side Building & Loan Association; William, Henry, and Charles Webbert, plumbers; Frank Hamburger, hardware store owner; Howard M. Myers, postal worker; William Fouts and Reuben Schindler, pharmacists; William Weber, plumber; and Bernard H. Lambers from Dayton Malleable Iron Works. Additionally, from outside Dayton, there were: O. F. Jamieson, traveling salesman from East Germantown, Ohio; David Beard and Amos Stauffer from Osborn; and Theodore Waddell from the Census Bureau in Washington. The Wrights had a list of about sixty people who had seen their flights.

Those witnesses named in the published list got requests for confirmatory letters from the Scientific American whose editor finally had decided that reports of what the Wrights had done might be worth looking into. Then, in the issue of April 7, 1906, the magazine reported the long flights of the previous autumn and quoted in full a letter from one of the witnesses. More than six months later, on November 21, 1906, the Aero Club itself wrote to the various persons named in the list received from the Wrights, asking for letters about the flights they had seen.

Those witnesses listed in the published document received requests for confirmation letters from Scientific American, whose editor had finally decided that the Wrights' achievements were worth investigating. Then, in the April 7, 1906 issue, the magazine reported on the long flights from the previous autumn and fully quoted a letter from one of the witnesses. More than six months later, on November 21, 1906, the Aero Club itself reached out to the individuals named in the list provided by the Wrights, asking for letters about the flights they had observed.

As late as October, 1906, the Scientific American had devoted more than a column to a letter from J. C. Press, of South Norwalk, Connecticut, who presented arguments to justify his belief that “man may fly within a few years.” But, on the other hand, the letter-writer quoted the editor of Collier’s Weekly as expressing “disbelief in even the ultimate possibility of flight.”

As late as October 1906, the Scientific American dedicated more than a column to a letter from J. C. Press of South Norwalk, Connecticut, who argued that “man may fly within a few years.” However, the letter-writer also quoted the editor of Collier’s Weekly as expressing “disbelief in even the ultimate possibility of flight.”

At last, however, in the issue of December 15, 1906, or nearly three years after the Wrights’ first flights, the Scientific American printed an editorial which indicated that the editor was now becoming aware of the facts. The editorial said: “In all the history of invention, there is probably no parallel to the unostentatious manner in which the Wright brothers of Dayton, Ohio, ushered into the world their epoch-making invention of the first successful aeroplane flying-machine.”

At last, however, in the December 15, 1906 issue, nearly three years after the Wright brothers' first flights, Scientific American published an editorial that showed the editor was finally recognizing the facts. The editorial stated: “In all of invention's history, there’s likely no comparison to the humble way the Wright brothers from Dayton, Ohio, introduced their groundbreaking invention of the first successful airplane.”


From the time that they knew their invention was practical, the Wrights wished to offer to their own government a world monopoly on all their patents and, still more important, all their secrets relating to the airplane. They thought it might be useful to the Army for scouting purposes. But as they had greater interest at first in learning more about flying and improving their machine than in making money out of it, they did not at once attempt negotiations with government officials at Washington. When they did make such an effort they received a rude shock. The United States Army not only didn’t believe there was any such device in existence as a practical flying-machine, but was not disposed to investigate.

From the moment they realized their invention was viable, the Wrights wanted to offer their government a global monopoly on all their patents and, even more importantly, all their secrets related to the airplane. They thought it could be beneficial for the Army for scouting missions. However, since they were initially more focused on learning about flying and improving their machine than on making money from it, they didn't immediately start talks with government officials in Washington. When they eventually made that effort, they faced a harsh reality. The United States Army not only didn't believe a practical flying machine existed, but they were also not inclined to investigate.

At least one foreign government showed more awareness and more curiosity. In the autumn of 1904, the Wrights got a letter from Lieutenant Colonel J. E. Capper, of the Royal Aircraft Factory (a government experimental laboratory dealing with aeronautics) at Aldershot. He wrote on shipboard en route to the United States, and enclosed a note of introduction from another Englishman whom the Wrights knew, Patrick Y. Alexander, member of the Aeronautical Society of Great Britain. (Alexander had called upon the Wrights at148 Dayton in 1902, with a letter of introduction from Octave Chanute.) Colonel Capper wanted to know if he might see the Wrights in Dayton when he returned eastward from a visit to the St. Louis Exposition. They told him they would be glad to see him and he came to Dayton, accompanied by his wife, in November.

At least one foreign government was more aware and curious. In the fall of 1904, the Wrights received a letter from Lieutenant Colonel J. E. Capper of the Royal Aircraft Factory (a government lab focused on aeronautics) in Aldershot. He wrote from a ship on his way to the United States and included a note of introduction from another Englishman the Wrights knew, Patrick Y. Alexander, a member of the Aeronautical Society of Great Britain. (Alexander had visited the Wrights in Dayton in 1902, bringing a letter of introduction from Octave Chanute.) Colonel Capper wanted to know if he could meet the Wrights in Dayton when he returned east after visiting the St. Louis Exposition. They told him they would be happy to see him, and he came to Dayton with his wife in November.

Soon after his arrival, Colonel Capper frankly said that he was there at the request of his government. The Wrights told him of what they had accomplished during that previous season of 1904 at the Huffman field. Before leaving, Colonel Capper asked them to make his government some kind of proposal.

Soon after he arrived, Colonel Capper openly stated that he was there at the request of his government. The Wrights informed him about what they had achieved during the previous season of 1904 at the Huffman field. Before he left, Colonel Capper asked them to submit a proposal to his government.

The Wrights made no haste about submitting a proposal to the British, but, on January 10, 1905, about two months after the Capper visit, they wrote to him asking if he was sure his government was receptive to an offer. In this letter they suggested that a government in possession of such a machine as they now could furnish, and the knowledge and instruction they could impart might have a lead of several years over governments which waited to buy a perfected machine before making a start in this line. The letter was signed: Wright Cycle Company.

The Wrights didn’t rush to submit a proposal to the British, but on January 10, 1905, about two months after the Capper visit, they wrote to him asking if he was sure his government was open to an offer. In this letter, they suggested that a government with access to a machine like the one they could now provide, along with the knowledge and training they could offer, might have a significant advantage over governments that chose to wait until they could buy a perfected machine before getting started in this field. The letter was signed: Wright Cycle Company.

THE HUFFMAN PASTURE. This rough field, eight miles from Dayton, where the Wrights made their important experiments of 1904 and 1905, is now a part of Patterson Field.
THE WRIGHT PATENT. Facsimile of the Letters Patent awarded Wilbur and Orville Wright on May 22, 1906, for their invention, the “Flying Machine.”

Whatever the British Government might desire, the Wrights did not intend to take any steps that could prevent the United States Government from having opportunity to control all rights in their invention for the entire world; and before having any further word from the British it seemed wise to learn from Washington just what our own government might want. They149 wrote, on January 18, 1905, to their member of Congress from the Dayton district, R. M. Nevin, as follows:

Whatever the British Government might want, the Wrights did not plan to take any actions that could stop the United States Government from securing control over all rights to their invention worldwide. Before receiving any more communication from the British, they thought it would be wise to find out from Washington what our own government might desire. They149 wrote, on January 18, 1905, to their representative from the Dayton district, R. M. Nevin, as follows:

The series of aeronautical experiments upon which we have been engaged for the past five years has ended in the production of a flying-machine of a type fitted for practical use. It not only flies through the air at high speed, but it also lands without being wrecked. During the year 1904 one hundred and five flights were made at our experimenting station, on the Huffman prairie, east of the city; and though our experience in handling the machine has been too short to give any high degree of skill, we nevertheless succeeded, toward the end of the season, in making two flights of five minutes each, in which we sailed round and round the field until a distance of about three miles had been covered, at a speed of thirty-five miles an hour. The first of these record flights was made on November 9th, in celebration of the phenomenal political victory of the preceding day, and the second, on December 1st, in honor of the one hundredth flight of the season.

The series of aeronautical experiments we've been working on for the past five years has resulted in a flying machine that's ready for practical use. It not only flies through the air at high speeds but also lands safely. In 1904, we completed one hundred and five flights at our testing location on Huffman Prairie, east of the city. Even though our experience with the machine has been too short to achieve a high level of skill, we managed, toward the end of the season, to complete two flights lasting five minutes each, circling the field and covering about three miles at a speed of thirty-five miles per hour. The first of these record flights took place on November 9th, celebrating the remarkable political victory from the day before, and the second one was on December 1st to mark the one hundredth flight of the season.

The numerous flights in straight lines, in circles, and over “S”-shaped courses, in calms and in winds, have made it quite certain that flying has been brought to a point where it can be made of great practical use in various ways, one of which is that of scouting and carrying messages in time of war. If the latter features are of interest to our own government, we shall be pleased to take up the matter either on a basis of providing machines of agreed specification, at a contract price, or of furnishing all the scientific and practical information we have accumulated in these years of experimenting, together with a license to use our patents; thus putting the government in a position to operate on its own account.

The many flights in straight lines, in circles, and along “S”-shaped paths, in calm weather and windy conditions, have confirmed that flying has reached a stage where it can be used practically in various ways. One of those ways is for scouting and delivering messages during wartime. If these features interest our government, we would be happy to discuss either supplying machines that meet agreed specifications at a contract price or providing all the scientific and practical information we've gathered over these years of experimentation, along with a license to use our patents; this would allow the government to operate independently.

If you can find it convenient to ascertain whether this is a subject of interest to our own government, it would oblige150 us greatly, as early information on this point will aid us in making our plans for the future.

If you can check if this is something our government is interested in, it would be really helpful, as knowing early on will assist us in planning for the future.150

Respectfully yours,
Wilbur and Orville Wright

Respectfully yours,
Wilbur and Orville Wright

Mr. Nevin forwarded the letter to the Secretary of War who turned it over to the Board of Ordnance and Fortification. That Board evidently regarded the letter simply as something for their “crank file.” They had received many proposals in the past from inventors of perpetual motion machines and flying-machines and had stock paragraphs to use in reply.

Mr. Nevin sent the letter to the Secretary of War, who passed it on to the Board of Ordnance and Fortification. That Board clearly saw the letter as just another item for their “crank file.” They had received numerous proposals in the past from inventors of perpetual motion machines and flying machines, and they had standard responses ready to use.

Their response to Nevin, signed by Major General G. L. Gillespie, of the General Staff, the President of the Board of Ordnance and Fortification, said:

Their response to Nevin, signed by Major General G. L. Gillespie, of the General Staff, the President of the Board of Ordnance and Fortification, said:

I have the honor to inform you that, as many requests have been made for financial assistance in the development of designs for flying-machines, the Board has found it necessary to decline to make allotments for the experimental development of devices for mechanical flight, and has determined that, before suggestions with that object in view will be considered, the device must have been brought to the stage of practical operation without expense to the United States.

I’m honored to inform you that, since there have been many requests for financial assistance in developing designs for flying machines, the Board has decided not to allocate funds for the experimental development of devices for mechanical flight and has determined that, before any suggestions for that purpose will be considered, the device must have been developed to the stage of practical operation at no cost to the United States.

It appears from the letter of Messrs. Wilbur and Orville Wright that their machine has not yet been brought to the stage of practical operation, but as soon as it shall have been perfected, this Board would be pleased to receive further representations from them in regard to it.6

According to the letter from Messrs. Wilbur and Orville Wright, their machine isn't ready for practical use yet, but as soon as it is perfected, this Board would welcome more updates from them about it.6

It will be noted, of course, that what the letter said bore almost no relation to anything the Wrights had written.

It’s worth noting, of course, that what the letter said had almost no connection to anything the Wrights had written.

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Having thus been brushed aside by their own government, the Wrights now might have been conscience clear to do as they saw fit with a foreign government. But nevertheless they determined that, no matter how public officials at Washington behaved, they would take no steps which could shut off their own government from use of the airplane if Army people ever got around to understanding the machine’s potential importance.

Having been ignored by their own government, the Wrights may have felt free to do what they wanted with a foreign government. However, they decided that, regardless of how public officials in Washington acted, they would not take any actions that could prevent their own government from using the airplane if the Army ever recognized the machine's potential importance.

On February 11, 1905, the Wrights received a letter from the British War Office, asking them to submit terms, and March 1, without giving formal terms, they outlined in a general way what they were willing to do.

On February 11, 1905, the Wrights got a letter from the British War Office, asking them to send their terms. By March 1, without providing formal terms, they generally outlined what they were willing to do.

“Although we consider it advisable,” they wrote to the British War Office, “that any agreement which may be made at present be based upon a single machine and necessary instruction in its use, we would be willing, if desired, to insert in the contract an option on the purchase of all that we know concerning the subject of aviation ...

“Although we think it’s a good idea,” they wrote to the British War Office, “that any agreement reached now should focus on a single machine and the necessary training for its use, we would be open, if wanted, to include in the contract an option to buy everything we know about aviation...”

“We are ready to enter into a contract with the British Government to construct and deliver to it an aerial scouting machine of the aeroplane type ...”

“We're ready to sign a contract with the British Government to build and deliver an aerial scouting machine of the airplane type ...”

Specifications included these: The machine to be capable of carrying two men of average weight, and supplies of fuel for a flight of not less than fifty miles; its speed, when flying in still air, to be not less than thirty miles an hour; the machine to be of substantial enough construction to make landings without being broken, when operated with a reasonable degree of skill.

Specifications included these: The machine must be able to carry two average-weight people and enough fuel for a flight of at least fifty miles; its speed, when flying in calm air, should be no less than thirty miles an hour; the machine should be built sturdy enough to land without breaking when operated with a reasonable level of skill.

Another provision was that the purchase price should be determined by the maximum distance covered in one152 of the trial flights; £500, or about $2,500 for each mile. If none of the trial flights was of at least ten miles, then the British Government would not be obligated to accept the machine.

Another rule was that the purchase price should be set based on the longest distance reached in one152 of the test flights: £500, or about $2,500 for each mile. If none of the test flights covered at least ten miles, then the British Government wouldn't have to accept the machine.

There were further exchanges of letters between the Wrights and the British (altogether twenty-four letters in the years 1905–6), but the brothers began to suspect that the British were mainly interested in prolonging the negotiations as a means of keeping in touch and knowing what progress was being made in aviation. Probably, thought the Wrights, the British shrewdly foresaw that the flying-machine would not add to the isolation of the British Isles, and did not wish to hasten its development. But they doubtless wished to be well informed about whatever was happening in the conquest of the air.

There were more exchanges of letters between the Wrights and the British (a total of twenty-four letters from 1905 to 1906), but the brothers started to suspect that the British were primarily interested in dragging out the negotiations to stay updated on advancements in aviation. The Wrights thought that the British probably realized that the flying machine wouldn’t increase the isolation of the British Isles and didn’t want to rush its development. However, they certainly wanted to stay informed about everything happening in the race to conquer the skies.

The British War Office wrote on May 13, 1905, that they were asking Colonel H. Foster, their military attaché, in Washington, to call upon the Wrights at their “works”—meaning, presumably, at their shop—and to see their machine in flight.

The British War Office wrote on May 13, 1905, that they were asking Colonel H. Foster, their military attaché, in Washington, to visit the Wrights at their “works”—meaning, presumably, at their shop—and to see their machine in flight.

The brothers were urged by their friend Octave Chanute on one of his visits to Dayton, to make another offer of their machine to the United States Army. Because of the treatment they had received from the War Department, the Wrights were naturally reluctant to expose themselves to further rebuffs, but Chanute was insistent that such behavior by Army people surely would not occur again. Thus prodded by Chanute, the Wrights, on October 9, 1905, wrote to the Secretary of War:

The brothers were encouraged by their friend Octave Chanute during one of his visits to Dayton to make another offer of their machine to the U.S. Army. Given the way the War Department had treated them before, the Wrights were understandably hesitant to face more setbacks, but Chanute insisted that the Army wouldn't treat them poorly again. Prompted by Chanute, the Wrights wrote to the Secretary of War on October 9, 1905:

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Some months ago we made an informal offer to furnish to the War Department practical flying-machines suitable for scouting purposes. The matter was referred to the Board of Ordnance and Fortification, which seems to have given it scant consideration. We do not wish to take this invention abroad, unless we find it necessary to do so, and therefore write again, renewing the offer.

Some months ago, we made an informal offer to provide the War Department with practical flying machines suitable for scouting. The issue was sent to the Board of Ordnance and Fortification, which doesn’t seem to have given it much thought. We don’t want to take this invention overseas unless we absolutely have to, so we're writing again to renew the offer.

We are prepared to furnish a machine on contract, to be accepted only after trial trips in which the conditions of the contract have been fulfilled; the machine to carry an operator and supplies of fuel, etc., sufficient for a flight of one hundred miles; the price of the machine to be regulated according to a sliding scale based on the performance of the machine in the trial trips; the minimum performance to be a flight of at least twenty-five miles at a speed of not less than thirty miles an hour.

We are ready to provide a machine on contract, which will only be accepted after trial runs where the terms of the contract have been met; the machine will carry an operator and enough fuel and supplies for a flight of one hundred miles; the price of the machine will be adjusted according to a sliding scale based on its performance during the trial runs; the minimum performance required will be a flight of at least twenty-five miles at a speed of no less than thirty miles per hour.

We are also willing to take contracts to build machines carrying more than one man.

We are also open to taking contracts to build machines that can carry more than one person.

Respectfully yours,
Wilbur and Orville Wright.

Respectfully yours,
Wilbur and Orville Wright.

Once again the Secretary of War referred their letter to the Board of Ordnance and Fortification. Major General J. C. Bates, member of the General Staff, had become president of the Board since the previous correspondence, and he signed the reply. The Wrights blinked at the familiar phrases in the opening paragraph:

Once again, the Secretary of War sent their letter to the Board of Ordnance and Fortification. Major General J. C. Bates, a member of the General Staff, had taken over as president of the Board since their last correspondence, and he signed the response. The Wrights blinked at the familiar phrases in the opening paragraph:

“I have the honor to inform you,” said the Major General, “that, as many requests have been made for financial assistance in the development of designs for flying-machines, the Board has found it necessary to decline to make allotments for the experimental development of devices for mechanical flight, and has determined that, before suggestions with that object in view154 will be considered, the device must have been brought to the stage of practical operation without expense to the United States.”

“I’m honored to inform you,” said the Major General, “that due to numerous requests for funding to develop designs for flying machines, the Board has decided it cannot allocate money for the experimental development of mechanical flight devices. They have concluded that before any proposals related to this can be considered, the device must be brought to a practical operational stage at no cost to the United States.”

The letter went on: “Before the question of making a contract with you for the furnishing of a flying-machine is considered it will be necessary for you to furnish this Board with the approximate cost of the completed machine, the date upon which it would be delivered, and with such drawings and descriptions thereof as are necessary to enable its construction to be understood and a definite conclusion as to its practicability to be arrived at. Upon receipt of this information, the matter will receive the careful consideration of the Board.”

The letter continued: “Before we can talk about making a contract with you for providing a flying machine, you need to give this Board the estimated cost of the completed machine, the expected delivery date, and any drawings and descriptions that will help us understand how to build it and determine if it’s practical. Once we receive this information, the Board will carefully consider the matter.”

In other words, the Board would have to see drawings and descriptions to determine if the machine the Wrights had been flying could fly!

In other words, the Board would need to see drawings and descriptions to figure out if the machine the Wrights had been flying could actually fly!

Regardless of whatever irritation they felt, the Wrights wrote to the Ordnance Board on October 19. In that letter they said:

Regardless of any irritation they felt, the Wrights wrote to the Ordnance Board on October 19. In that letter, they said:

We have no thought of asking financial assistance from the government. We propose to sell the results of experiments finished at our own expense.

We have no intention of asking the government for financial help. We plan to sell the results of experiments that we completed on our own dime.

In order that we may submit a proposition conforming as nearly as possible to the ideas of your board, it is desirable that we be informed what conditions you would wish to lay down as to the performance of the machine in the official trials, prior to the acceptance of the machine. We cannot well fix a price, nor a time for delivery, till we have your idea of the qualifications necessary to such a machine. We ought also to know whether you would wish to reserve a monopoly on the use of the invention, or155 whether you would permit us to accept orders for similar machines from other governments, and give public exhibitions, etc.

To help us present a proposal that aligns closely with your board's ideas, it would be helpful to know the conditions you want regarding the machine's performance during the official trials before accepting it. We can't set a price or delivery time until we understand what qualifications you expect for such a machine. Additionally, we should know if you want to keep exclusive rights to the use of the invention, or if you would allow us to take orders for similar machines from other governments and hold public demonstrations, etc.

Proof of our ability to execute an undertaking of the nature proposed will be furnished whenever desired.

Proof of our ability to carry out the proposed project will be provided whenever needed.

Here is what Captain T. C. Dickson, Recorder of the Board, wrote in reply:

Here’s what Captain T. C. Dickson, Recorder of the Board, wrote in response:

The Board of Ordnance and Fortification at its meeting October 24, 1905, took the following action:

The Board of Ordnance and Fortification at its meeting on October 24, 1905, made the following decision:

The Board then considered a letter, dated October 19, 1905, from Wilbur and Orville Wright requesting the requirements prescribed by the Board that a flying-machine would have to fulfill before it would be accepted.

The Board then reviewed a letter, dated October 19, 1905, from Wilbur and Orville Wright asking for the requirements set by the Board that a flying machine would need to meet before it would be approved.

It is recommended the Messrs. Wright be informed that the Board does not care to formulate any requirements for the performance of a flying-machine or take any further action on the subject until a machine is produced which by actual operation is shown to be able to produce horizontal flight and to carry an operator.

It is suggested that the Wright brothers be informed that the Board is not interested in setting any specifications for the performance of a flying machine or taking any further steps on the matter until a machine is created that can actually demonstrate horizontal flight and carry a pilot.

Such letters did not encourage the Wrights to press their offer further. As Wilbur expressed it, they had taken pains to see that “opportunity gave a good clear knock on the War Department door.” It had always been their business practice, he said, to sell to those who wished to buy instead of trying to force goods upon people who did not want them. And now if the American Government had decided to spend no more money on flying-machines until their practical use should be demonstrated abroad, the Wrights felt that there wasn’t much they could do about it.

Such letters didn’t motivate the Wrights to pursue their offer any further. As Wilbur put it, they made sure that “opportunity knocked clearly at the War Department door.” He mentioned that their usual business practice was to sell to those who wanted to buy rather than trying to push products on people who didn’t want them. Now, if the American Government had decided to hold off on spending more money on flying machines until their practical use was proven overseas, the Wrights felt there wasn’t much they could do about it.

Chanute, too, was now convinced that the seeming156 stupidity of War Department officials was not accidental. His comment was: “Those fellows are a bunch of asses.”

Chanute, too, was now convinced that the apparent156 ignorance of War Department officials was not by chance. His comment was: “Those guys are a bunch of idiots.”

On that same day, October 19, when they wrote to the Ordnance Board, the Wrights had sent a letter also to the British War Office amending their earlier proposal. They said that recent events justified them in making the acceptance of their machine dependent upon a trial flight of at least fifty miles, instead of only ten miles as in the original offer.

On that same day, October 19, when they wrote to the Ordnance Board, the Wrights also sent a letter to the British War Office updating their earlier proposal. They stated that recent events justified making the acceptance of their machine dependent on a trial flight of at least fifty miles, instead of just ten miles as in the original offer.

Shortly afterward, on November 22, 1905, the Wrights received a letter from Colonel Foster, the British military attaché in Washington, asking if it would be possible for him to see the Wright machine in flight. Experiments for that year had been completed; but, the Wrights replied, if Colonel Foster came to Dayton he could meet and talk with many persons who had witnessed flights. That didn’t satisfy Colonel Foster. He wrote again on November 29 that the War Office had had many descriptions of airplane flights by persons supposed to have witnessed them. What the War Office wanted, he said, was for him to see a flight.

Shortly after, on November 22, 1905, the Wrights got a letter from Colonel Foster, the British military attaché in Washington, asking if he could see the Wright machine in flight. Their experiments for that year were done, but the Wrights replied that if Colonel Foster came to Dayton, he could meet and talk with many people who had seen the flights. That didn’t satisfy Colonel Foster. He wrote again on November 29, saying that the War Office had received many descriptions of airplane flights from people who were supposed to have seen them. What the War Office wanted, he said, was for him to see a flight.

The Wrights made it plain to the Colonel that they saw no point to making a demonstration of their machine unless negotiations had reached a point where a deal could be closed if the machine’s performance was as represented. They reminded him that it wasn’t necessary for the British War Office to put up any money in advance—only to sign an agreement that a deal would be closed after the Wrights had shown what their machine157 could do. Communications continued to pass between the Wrights and the British. Colonel Foster was succeeded as British military attaché at Washington by Colonel Gleichen and the latter made a trip to Dayton. But nothing came of the negotiations. In December, 1906, the British finally wrote to the Wrights that they had decided not to buy an airplane.

The Wrights made it clear to the Colonel that they saw no point in demonstrating their machine unless the discussions had progressed to a point where a deal could be finalized if the machine performed as promised. They reminded him that it wasn’t necessary for the British War Office to pay any money upfront—only to sign an agreement that a deal would be wrapped up after the Wrights displayed what their machine157 could do. Communication continued between the Wrights and the British. Colonel Foster was replaced as the British military attaché in Washington by Colonel Gleichen, who then made a trip to Dayton. However, nothing came of the negotiations. In December 1906, the British finally informed the Wrights that they had decided not to purchase an airplane.

Meanwhile, in the spring of 1906, the War Department at Washington heard once more about the Wrights in consequence of an exchange of letters between the Wrights and Godfrey Lowell Cabot, of Boston, who, it will be remembered, had written to them just after the Kitty Hawk flights in 1903. Cabot had seen a bulletin published by the Aero Club of America, on March 12, 1906, that told about the progress the Wrights had made during the season of 1905 at Huffman field. He had learned also, from his brother Samuel, a little about the Wrights’ offer to the U. S. War Department. Samuel Cabot got the news, presumably, from Chanute, with whom he from time to time exchanged letters. (He had written to Chanute asking if the Wrights needed any financial assistance for carrying on their experiments, and Chanute told him they did not.) Godfrey Cabot wrote to the brothers (in April, 1906) saying that he supposed they had offered their machine to the U. S. Army “with negative results,” but that if they ever decided to form a company to exploit the machine’s commercial possibilities, he wished they would send him a prospectus.

Meanwhile, in the spring of 1906, the War Department in Washington heard again about the Wright brothers due to a series of letters exchanged between them and Godfrey Lowell Cabot from Boston, who, you'll remember, had contacted them right after the Kitty Hawk flights in 1903. Cabot had seen a bulletin published by the Aero Club of America on March 12, 1906, that reported on the progress the Wrights had made during 1905 at Huffman field. He had also heard from his brother Samuel a bit about the Wrights’ offer to the U.S. War Department. Samuel Cabot likely got this information from Chanute, with whom he occasionally exchanged letters. (He had written to Chanute asking if the Wrights needed any financial support for their experiments, and Chanute had informed him that they did not.) Godfrey Cabot wrote to the brothers (in April 1906) saying that he assumed they had offered their machine to the U.S. Army “with negative results,” but if they ever decided to start a company to explore the machine’s commercial potential, he hoped they would send him a prospectus.

In their reply to Cabot (May 19), the Wrights confirmed158 the reports about their correspondence with the Ordnance Board. Cabot was so astounded over the treatment they had received that he promptly sent the facts to his relative, Henry Cabot Lodge, United States Senator from Massachusetts. Lodge forwarded Cabot’s letter, along with one of his own, to the Secretary of War—who sent it to the Board of Ordnance and Fortification. Brigadier General William Crozier, president of the Ordnance Board, wrote to Senator Lodge, on May 26, acknowledging his letter to the Secretary of War, and stating that “if those in control of the flying-machine invented by the Wright brothers will place themselves in communication with the Board of Ordnance and Fortification, War Department, Washington, D. C., any proposition they may have to make will be given consideration by the Board.”

In their response to Cabot on May 19, the Wrights confirmed158 the reports about their communication with the Ordnance Board. Cabot was so shocked by the treatment they had received that he immediately shared the details with his relative, Henry Cabot Lodge, a U.S. Senator from Massachusetts. Lodge then forwarded Cabot’s letter, along with one of his own, to the Secretary of War, who passed it on to the Board of Ordnance and Fortification. Brigadier General William Crozier, president of the Ordnance Board, wrote to Senator Lodge on May 26, acknowledging his letter to the Secretary of War and stating that “if those in charge of the flying machine invented by the Wright brothers reach out to the Board of Ordnance and Fortification, War Department, Washington, D.C., any proposal they have will be considered by the Board.”

Shortly afterward, Godfrey Cabot called upon General Crozier in Washington and showed him copies of the Aero Club Bulletin which told about the Wrights flying twenty-four miles in 1905. Since this was convincing evidence that the Wrights’ machine was capable of horizontal flight, General Crozier may have been somewhat embarrassed. He said the Ordnance Board would be glad to receive a proposition from the Wrights! He said, too, that he might send a representative to see the Wrights in Dayton.

Shortly after, Godfrey Cabot visited General Crozier in Washington and showed him copies of the Aero Club Bulletin that reported the Wrights flying twenty-four miles in 1905. Since this was compelling evidence that the Wrights’ aircraft could achieve horizontal flight, General Crozier might have felt a bit awkward. He mentioned that the Ordnance Board would be happy to receive a proposal from the Wrights! He also said that he might send someone to meet with the Wrights in Dayton.

In reply to a letter from Cabot reporting his talk with Crozier, the Wrights (on June 21) wrote:

In response to a letter from Cabot about his conversation with Crozier, the Wrights (on June 21) wrote:

If General Crozier should decide to send a representative to Dayton we would be glad to furnish him convincing159 proof that a machine has been produced which by actual operation has been shown to be able to produce horizontal flight and to carry an operator.

If General Crozier decides to send a representative to Dayton, we would be happy to provide convincing proof that a machine has been created which, through actual operation, has demonstrated its ability to achieve horizontal flight and carry an operator.

This letter also said:

This letter also stated:

We are ready to negotiate whenever the Board is ready, but as the former correspondence closed with a strong intimation that the Board did not wish to be bothered with our offers, we naturally have no intention of taking the initiative again.

We’re ready to negotiate whenever the Board is, but since the last correspondence strongly suggested that the Board didn't want to deal with our offers, we naturally don’t intend to take the initiative again.

General Crozier did not send any representative to Dayton.

General Crozier didn't send anyone to Dayton.

Several months later, in November, 1906, newspapers got wind of the fact that there had been some kind of correspondence between the Wrights and the War Department. On November 29, many newspapers carried a dispatch from Washington which said: “While General Crozier will not discuss negotiations with the Wrights, he said today: ‘You may simply say it is now up to the Wright brothers to say whether the government shall take their invention. They know the government’s attitude and have its offer.’”

Several months later, in November 1906, newspapers caught onto the fact that there had been some kind of communication between the Wright brothers and the War Department. On November 29, many newspapers ran a report from Washington that stated: “While General Crozier won't talk about negotiations with the Wrights, he said today: ‘You can just say it’s now up to the Wright brothers to decide whether the government will take their invention. They understand the government’s position and have its offer.’”

There had been no Government offer. The last communication the Wrights had received from the War Department was the one, more than a year before, in which the Ordnance Board said it did not wish to take any further action.

There had been no government offer. The last communication the Wrights had received from the War Department was over a year ago, when the Ordnance Board stated it did not want to take any further action.

The Wrights felt sure that the War Department no longer doubted the existence of a successful flying-machine. It appeared, though, that certain Army officers still were unwilling frankly to admit their blundering160 behavior and come down from their high horse. There was reason to believe that the Ordnance Board would welcome a face-saving opportunity and hoped the Wrights would once again take the initiative by making a new proposal. But the Wrights were not ready to do so. Their advances had too often been spurned. The next move, they thought, should come from the War Department.

The Wrights were confident that the War Department no longer doubted the existence of a successful flying machine. However, it seemed that some Army officers were still unwilling to admit their mistakes and come down from their high horse. There was reason to believe that the Ordnance Board would appreciate a chance to save face and hoped the Wrights would take the initiative again by making a new proposal. But the Wrights were not ready to do that. Their offers had been rejected too many times. They believed the next move should come from the War Department.

In that frame of mind, early in the spring of 1907, the inventors evolved a plan for bringing their machine to the attention of the War Department in a manner quite dramatic.

In that mindset, early in the spring of 1907, the inventors developed a plan to grab the War Department's attention in a pretty dramatic way.

An exposition was going to be held on the Virginia coast that year to celebrate the three hundredth anniversary of the founding of the first English colony, at Jamestown. In connection with this Jamestown Exposition there would be a great naval review, April 26, at Hampton Roads. President Theodore Roosevelt and other important government people, including Army and Navy officers, would be present. What would be the matter, the Wrights asked themselves, with appearing there unexpectedly in their flying-machine? They could equip their machine with hydroplanes and pontoons for starting and landing on water, take it to Kitty Hawk, and then fly it, over Currituck Sound and beyond, to the scene of the naval review. After circling a few hundred feet above the battleships, the machine would disappear as suddenly and as mysteriously as it had come. No newspaper people or anyone else would know where it came from or how to get in touch with those who knew about it, and the mystery would grow.161 Officers of the Army and Navy would be asked embarrassing questions. Had they arranged for the flying-machine to appear, and had it been adopted for use in time of war? Those who still “knew” there was no practical flying-machine would be set to wondering.

An exposition was set to take place on the Virginia coast that year to celebrate the three hundredth anniversary of the founding of the first English colony at Jamestown. In connection with this Jamestown Exposition, there would be a major naval review on April 26 at Hampton Roads. President Theodore Roosevelt and other high-ranking government officials, including Army and Navy officers, would be in attendance. The Wrights wondered what it would be like to make a surprise appearance there in their flying machine. They could equip their aircraft with hydroplanes and pontoons for taking off and landing on water, transport it to Kitty Hawk, and then fly it over Currituck Sound and beyond to the naval review site. After circling a few hundred feet above the battleships, the aircraft would vanish as suddenly and mysteriously as it had arrived. No reporters or anyone else would know its origin or how to contact those who did, adding to the intrigue. Army and Navy officers would face uncomfortable questions. Had they coordinated the flying machine's appearance, and was it being considered for military use? Those who still believed that practical flying machines didn't exist would be left in doubt. 161

The Wrights had many a quiet chuckle at the thought of the effect of their practical joke if it could be carried out. It was not too dangerous a project. Much of the flight could be made over shallow water in Currituck Sound. It would easily be possible to fly as far as the scene of the naval review and out of sight on the return trip before coming down.

The Wrights had a lot of quiet laughs at the idea of what their practical joke would be like if they pulled it off. It wasn't too risky. They could do most of the flight over the shallow water in Currituck Sound. It would be pretty easy to fly all the way to the naval review and out of sight on the way back before landing.

They put an engine, with propellers attached to it, on pontoons, and placed this experimental outfit on the river at Dayton for preliminary trials. After a day or so of these tests it was evident that the plan of mounting their machine on hydroplanes and pontoons and taking off from the water was practical. But the inventors took aboard a passenger who tried to be helpful. In his efforts to throw his weight where he thought it would help the balance, he succeeded only in tilting the machine so steeply that it dived below the surface. The propellers were damaged. Before repairs could be made, something broke the dam in the river. The Wrights had to abandon their plans for a prank that might have been a national sensation.

They put an engine with propellers on pontoons and set this experimental setup on the river at Dayton for preliminary trials. After a day or so of testing, it was clear that the idea of mounting their machine on hydroplanes and pontoons to take off from the water was practical. However, one of the inventors brought on a passenger who intended to help. In trying to shift his weight for better balance, he only managed to tilt the machine so much that it plunged below the surface. The propellers were damaged. Before repairs could be completed, something broke the dam in the river. The Wrights had to abandon their plans for a stunt that could have become a national sensation.

Only a short time after the Wrights were planning their surprise flight, in that spring of 1907, Herbert Parsons, a member of Congress from New York, sent to President Roosevelt a clipping from the Scientific American—whose editor now knew about the Wrights.162 Roosevelt sent the clipping, with a note signed by his secretary, to Secretary of War Taft. The note suggested a talk with Representative Parsons to discuss the idea of experimenting with the Wright flying-machine. Taft sent the clipping and White House note to the Ordnance Board, with a note signed by his own secretary and headed “Endorsement.”

Only a short time after the Wrights were planning their surprise flight in the spring of 1907, Herbert Parsons, a Congressman from New York, sent President Roosevelt a clipping from the Scientific American—whose editor now knew about the Wrights.162 Roosevelt forwarded the clipping, along with a note signed by his secretary, to Secretary of War Taft. The note suggested a conversation with Representative Parsons to discuss the idea of experimenting with the Wright flying machine. Taft sent the clipping and the White House note to the Ordnance Board, accompanied by a note signed by his own secretary and titled "Endorsement."

The personnel of the Ordnance Board had changed, at least partly, since the earlier correspondence with the Wrights. But the same attitude of aloofness regarding flying-machines still existed. The Board could not, however, ignore a letter from the office of the President of the United States, Commander-in-Chief of the Army and Navy, with an endorsement from the Secretary of War. It might have been expected that the Board members would feel bound to investigate the reported flying-machine. But they couldn’t bring themselves to go that far. All they did was to send, on May 11, a brief letter to the Wrights, signed by Major Samson M. Fuller, Recorder of the Board. The letter said:

The staff at the Ordnance Board had changed, at least in part, since the earlier communication with the Wrights. However, the same detached attitude towards flying machines still prevailed. Nonetheless, the Board could not overlook a letter from the office of the President of the United States, who is the Commander-in-Chief of the Army and Navy, along with an endorsement from the Secretary of War. It might have been expected that the Board members would feel obligated to investigate the reported flying machine. But they couldn’t bring themselves to do that. Instead, all they did was send a brief letter to the Wrights on May 11, signed by Major Samson M. Fuller, Recorder of the Board. The letter said:

I am directed by the President of the Board to enclose copies of two letters referring to your aeroplane, for your information, and to say that the Board has before it several propositions for the construction and test of aeroplanes, and if you desire to take any action in the matter, will be glad to hear from you on the subject.

I’ve been asked by the President of the Board to include copies of two letters about your airplane for your reference. The Board is currently reviewing several proposals for the construction and testing of airplanes. If you’d like to take any action on this matter, we’d be happy to hear from you.

Accompanying the letter were copies of the notes from the White House and the office of the Secretary of War. The Wrights believed they knew why those copies were sent. It was to let them know that the Ordnance163 Board was writing only because of orders from higher up.

Accompanying the letter were copies of the notes from the White House and the Secretary of War's office. The Wrights thought they understood why those copies were sent. It was to inform them that the Ordnance163 Board was writing only because of orders from above.

Though the letter from the Board was standoffish enough, yet it did not imply, as some of the earlier letters did, that the Wrights were a pair of beggars, or cranks, seeking funds. The Wrights thought the letter had been forced and that it really was a mere gesture, but nevertheless they treated it as if the Ordnance Board might now be seriously interested.

Though the letter from the Board was pretty cold, it didn’t imply, like some earlier letters, that the Wrights were just a couple of beggars or weirdos looking for money. The Wrights felt the letter was kind of forced and just a token move, but still, they acted like the Ordnance Board might actually be genuinely interested now.

In their reply, May 17, the Wrights said they had some flying machines under construction and would be glad to make a formal proposal to sell one or more of them to the Government if the War Department was interested. They said the machine would carry two men and a supply of fuel for a flight of 200 kilometers; that a trial flight of at least 50 kilometers, at a speed not less than 50 kilometers an hour, would be made before representatives of the Government before any part of the purchase price was paid. They suggested a conference for the purpose of discussing the matter in detail. And they said they were willing to submit a formal proposition, if that was preferred.

In their response on May 17, the Wrights mentioned that they had some flying machines in the works and would be happy to formally propose selling one or more of them to the Government if the War Department was interested. They noted that the machine would carry two people and a supply of fuel for a flight of 200 kilometers; a test flight of at least 50 kilometers, at a speed of not less than 50 kilometers per hour, would be conducted in front of Government representatives before any part of the purchase price was paid. They suggested having a meeting to discuss the matter in detail and stated they were ready to submit a formal proposal if that was preferred.

In the next letter from the Ordnance Board, dated May 22, 1907, nothing was said about the Wrights’ suggestion for a conference; but the Wrights were requested to make a formal proposal incorporating the specifications and conditions contained in their letter to the Board, dated May 17.

In the next letter from the Ordnance Board, dated May 22, 1907, there was no mention of the Wrights’ suggestion for a conference; however, the Wrights were asked to submit a formal proposal that included the specifications and conditions outlined in their letter to the Board from May 17.

The Wrights sent a formal proposal on May 31. In this proposal they repeated all the specifications and conditions mentioned in their letter of the 17th, and in164 addition agreed to the following: to teach an operator to fly the machine; to return to the starting point in the 50 kilometer test flight; and to land without any damage that would prevent the machine being started immediately upon another flight. The price stated was $100,000 for the first machine; others to be furnished at a reasonable margin above the cost of manufacture. They added that they were willing to make the contract speed 40 miles an hour, provided an additional sum would be allowed for each mile in excess of that speed in the trial flight, with a forfeit of an equal amount for every mile below. Again the Wrights made it plain that nothing was to be paid to them until after a trial flight had met all contract requirements.

The Wrights sent a formal proposal on May 31. In this proposal, they reiterated all the specifications and conditions mentioned in their letter from the 17th and, in addition, agreed to the following: to teach an operator how to fly the machine; to return to the starting point in the 50-kilometer test flight; and to land without any damage that would prevent the machine from being ready for another flight immediately after. The price stated was $100,000 for the first machine, with additional units provided at a reasonable margin above the manufacturing cost. They also noted that they were willing to make the contract speed 40 miles per hour, as long as an extra fee was paid for each mile over that speed during the trial flight, with a penalty of the same amount for every mile below. Again, the Wrights made it clear that nothing would be paid to them until a trial flight had met all contract requirements.

The next letter from the Ordnance Board dated June 8 said that $100,000 was more than the Board had available, and that such an amount could not be obtained without a special appropriation by Congress at its next session. Then the letter went on to ask what the price would include; whether the United States would be granted exclusive use, or whether the Wrights contemplated commercial exploitation of their machine, or negotiations with foreign governments.

The next letter from the Ordnance Board dated June 8 said that $100,000 was more than what the Board had available, and that amount couldn't be obtained without a special appropriation by Congress at its next session. The letter then asked what the price would cover; whether the United States would have exclusive use, or if the Wrights were considering commercial use of their machine, or negotiations with foreign governments.

The Wrights wrote in reply explaining just what was included in the price. They said it did not include any period during which the use of the invention would belong exclusively to the United States, since a recent contract precluded such an offer, and that it was their intention to furnish machines for military use before entering the commercial field. The letter repeated what the Wrights had said before, that when a contract had165 been signed they would produce a machine at their own expense and make flights as specified in the contract in the presence of representatives of the War Department before any money whatever was paid to them.

The Wrights responded by explaining exactly what was included in the price. They stated that it did not cover any period during which the use of the invention would belong exclusively to the United States, as a recent contract made such an offer impossible. They also mentioned that their goal was to provide machines for military use before entering the commercial market. The letter reiterated what the Wrights had said before: that once a contract was signed, they would create a machine at their own cost and conduct flights as outlined in the contract in front of representatives from the War Department before receiving any payment.

That was the last letter to pass between the Ordnance Board and the Wrights for some time. But while the Wrights were in Europe, the Board undoubtedly began to hear from military attachés and others about the brothers’ negotiations abroad. At any rate, the Board began to show signs of uneasiness and they wrote a letter, signed by Major Fuller, October 5—received by the Wrights in Europe—to say that the Wright proposal of June 15 had again been given consideration by the Board at its meeting of October 3, 1907, but that nothing definite could be done before a meeting of Congress, as Congressional action would be necessary to accept the proposition, since the funds at the Board’s disposal were insufficient.

That was the last letter exchanged between the Ordnance Board and the Wrights for a while. However, while the Wrights were in Europe, the Board likely started hearing from military attachés and others about the brothers' negotiations overseas. In any case, the Board began to show signs of concern and wrote a letter, signed by Major Fuller, on October 5—which the Wrights received in Europe—to say that the Wright proposal from June 15 had been reconsidered by the Board at its meeting on October 3, 1907. However, nothing could be finalized before a meeting of Congress, as Congressional action would be needed to accept the proposal, since the funds available to the Board were inadequate.

The Wrights’ reply, from London, on October 30, made it clear that if the price was the only thing in the way, that could probably be satisfactorily adjusted.

The Wrights’ reply from London on October 30 made it clear that if the price was the only issue, that could likely be resolved.

Wilbur Wright started home from Europe ahead of Orville, but before he left, it was agreed between the brothers that their price for an airplane to the United States Government would be $25,000.

Wilbur Wright headed home from Europe before Orville, but before he left, the brothers agreed that their price for an airplane to the United States Government would be $25,000.


Though the importance of the Wrights’ achievements was unrecognized in the United States until long after their first power flights, reports about their gliding prior to those flights had aroused much interest abroad.

Though the significance of the Wrights’ accomplishments was overlooked in the United States until well after their first powered flights, reports about their gliding before those flights had generated a lot of interest overseas.

In the spring of 1903, the Wrights’ Chicago friend, Octave Chanute, had gone to his native France in the interest of the St. Louis Exposition to be held the next year. One purpose of his visit was to arrange with Alberto Santos-Dumont, the Brazilian aeronaut, who lived in Paris, to make flights at St. Louis with his dirigible balloon. While in Paris, Chanute was invited by the Aéro Club to give a talk regarding aviation in the United States. In this talk, on April 2, he told of his own gliding experiments in 1896 and of those of the Wright Brothers in 1901 and 1902, illustrated by photographs. Then in the August, 1903, issue of L’Aérophile Chanute published an article on the same subject, with photographic illustrations, scale drawings, and structural details of the Wright 1902 glider. In the Revue des Sciences of November, 1903, he again published photographs and description of that machine. This 1902 glider far surpassed any that had ever been built before, and in it the problem of equilibrium had practically been solved. That glider was the basis of the167 specifications in the Wright patent. Chanute’s revelations therefore were sensational. And they did not fall on deaf ears.

In the spring of 1903, the Wrights' friend from Chicago, Octave Chanute, had traveled back to his home country of France to help prepare for the St. Louis Exposition scheduled for the following year. One of the goals of his trip was to coordinate with Alberto Santos-Dumont, the Brazilian aeronaut living in Paris, to arrange flights at St. Louis with his dirigible balloon. While he was in Paris, Chanute was invited by the Aéro Club to give a presentation about aviation in the United States. During his talk on April 2, he shared his own gliding experiments from 1896 and those of the Wright Brothers from 1901 and 1902, using photographs for illustration. Then, in the August 1903 issue of L’Aérophile, Chanute published an article on the same topic, complete with photos, scale drawings, and structural details of the Wright 1902 glider. In the Revue des Sciences from November 1903, he again presented photographs and a description of that machine. This 1902 glider was far superior to any that had ever been built before, and it effectively addressed the problem of equilibrium. That glider formed the foundation for the specifications in the Wright patent. Consequently, Chanute’s findings created quite a stir, and they were well received.

Until this time, about the only man in France who was showing any interest in aviation was Captain Louis Ferdinand Ferber of the French army, who himself had made gliding experiments as a hobby while serving in an Alpine artillery corps. As early as 1901 he had begun an exchange of letters with Chanute, after having read in the Illustrierte Aeronautische Mitteilungen, a German magazine devoted mainly to ballooning, a brief article, supplied by Wilbur Wright, about the 1900 experiments at Kitty Hawk. A little later he wrote for information to the Wrights themselves. But now after the Chanute speech, Ferber was no longer alone among Frenchmen in thinking the Wrights’ experiments might be significant. Though belief in the possibility of a successful flying machine had been at lowest ebb in France, the information now made available by Chanute caused a greatly revived interest. Heretofore the Aéro Club had devoted its attention almost entirely to balloons and dirigibles, but it considered the French as leaders in every line pertaining to aeronautics. Immediately following the Chanute address telling of the Wrights’ gliding experiments in America, several members of the Aéro Club, led by Ernest Archdeacon, decided to organize a special committee on aviation. Archdeacon also made a warm appeal in favor of organizing contests for gliders to show that the French did not intend to allow anyone to surpass them in any branch of aeronautics. He subscribed three thousand francs for the168 organization of such contests and for prizes. L’Aérophile, official organ of the Club, which up to this time had published little about aviation, now suddenly began to carry many articles and items of news concerning projected experiments in gliding.

Until now, the only person in France showing any interest in aviation was Captain Louis Ferdinand Ferber of the French army, who had been experimenting with gliding as a hobby while serving in an Alpine artillery unit. As early as 1901, he started exchanging letters with Chanute after reading a brief article by Wilbur Wright about the 1900 experiments at Kitty Hawk in the Illustrierte Aeronautische Mitteilungen, a German magazine mostly focused on ballooning. Soon after, he reached out to the Wrights for more information. But now, after the Chanute speech, Ferber was no longer the only Frenchman believing the Wrights' experiments could be significant. Although faith in the possibility of a successful flying machine had been at an all-time low in France, the information made available by Chanute sparked a renewed interest. Until then, the Aéro Club had focused almost entirely on balloons and dirigibles, but it considered the French to be leaders in all areas of aeronautics. Immediately after Chanute's address discussing the Wrights' gliding experiments in America, several members of the Aéro Club, led by Ernest Archdeacon, decided to form a special committee on aviation. Archdeacon also passionately advocated for organizing gliding contests to demonstrate that the French wouldn't allow anyone to surpass them in any area of aeronautics. He pledged three thousand francs for the168 organization of these contests and for prizes. L’Aérophile, the official publication of the Club, which had published little about aviation until now, suddenly began featuring numerous articles and news items about planned gliding experiments.

But it was some months before the French actually passed from the “talking” to the “doing” stage in gliding. In the meantime a brief dispatch about the Wrights’ power flights on December 17, 1903, had appeared in French and other European daily papers. Though the reports of these power flights were received with considerable skepticism, nevertheless they created such a furore in French aeronautical circles that before the end of January, 1904, no less than six gliders of the Wright 1902 type were being built in France from data furnished by Chanute.

But it took a few months for the French to actually move from "talking" about gliding to "doing" it. In the meantime, a brief article about the Wright brothers' powered flights on December 17, 1903, had been published in French and other European newspapers. Although the reports of these powered flights were met with a lot of skepticism, they caused such a stir in French aeronautical circles that by the end of January 1904, six gliders of the Wright 1902 type were being built in France based on information provided by Chanute.

Ernest Archdeacon, of the Aéro Club, placed an order with M. Dargent, a model maker of Chalais-Meudon, to build a copy of the Wright 1902 glider. Early in 1904 (January 28), Captain Ferber delivered a lecture at Lyon on the subject of gliding experiments, and a young man named Gabriel Voisin, just finishing his course in a technical school, came to him to ask advice about how to get into the field of aviation. He said he wished to “consecrate his life” to aviation. Ferber suggested that he should go to see Archdeacon. Voisin did so, and Archdeacon employed him to test the glider built by Dargent. Ferber gave Voisin his instructions in gliding. Then Archdeacon employed Voisin to build still another glider like the Wright machine. That contact with Archdeacon gave Voisin169 his start toward becoming a famous airplane manufacturer. And it was from that glider “du type de Wright,” as the French papers called it, tested by Voisin, that grew the first Voisin machines, soon to be followed by those of other copyists. Here was the real beginning of French—indeed of European—aviation.

Ernest Archdeacon, from the Aéro Club, placed an order with M. Dargent, a model maker from Chalais-Meudon, to create a replica of the Wright 1902 glider. In early 1904 (January 28), Captain Ferber gave a lecture in Lyon about gliding experiments, and a young man named Gabriel Voisin, who was finishing his technical school course, approached him for advice on getting into aviation. He expressed his desire to “dedicate his life” to aviation. Ferber recommended that he meet with Archdeacon. Voisin did just that, and Archdeacon hired him to test the glider made by Dargent. Ferber provided Voisin with guidance on gliding. Later, Archdeacon asked Voisin to build another glider similar to the Wright aircraft. That connection with Archdeacon launched Voisin169 on his path to becoming a renowned airplane manufacturer. From that glider “du type de Wright,” as the French newspapers referred to it, tested by Voisin, the first Voisin machines emerged, soon to be followed by those of other imitators. This marked the true beginning of French—indeed European—aviation.

Articles about the Wright power flights were appearing in the French, English and German aeronautical magazines. A longer article about the Kitty Hawk event was printed in the March, 1904, issue of Illustrierte Aeronautische Mitteilungen from Carl Dienstbach,7 a musician in New York, who as a side line was the magazine’s correspondent.

Articles about the Wright power flights were being published in French, English, and German aviation magazines. A more in-depth article about the Kitty Hawk event was featured in the March 1904 issue of Illustrierte Aeronautische Mitteilungen by Carl Dienstbach, a musician in New York who also worked as the magazine’s correspondent.

One copyist after another began to use devices and technical knowledge invented or discovered by the Wrights. When Ferber received a letter from the American publication, the Scientific American, asking for an account of his own gliding experiments, he wrote to them that he was simply a “disciple of the Wright Brothers.” But these copyists were not content to follow the Chanute revelations and build gliders just like that of the Wrights. Instead, they tried to improve upon the Wrights’ work. The “improvements” were not successful, because the builders did not have the Wrights’ knowledge and wind-tunnel data, except that used in the 1902 glider, to guide them. So great were their difficulties that some of the experimenters began to place blame on Chanute. They thought Chanute must have misrepresented what the Wrights had done—maybe purposely. That was the only way they could170 account for their failure to get the good results obtained by the Wrights.

One copyist after another started using devices and technical insights invented or discovered by the Wrights. When Ferber got a letter from the American publication, Scientific American, asking for an account of his gliding experiments, he replied that he was simply a “disciple of the Wright Brothers.” However, these copyists weren't satisfied with just following Chanute's ideas and building gliders like the Wrights'. Instead, they aimed to improve upon the Wrights’ work. Unfortunately, these “improvements” were unsuccessful because the builders lacked the Wrights’ knowledge and wind-tunnel data, except for what was used in the 1902 glider, to guide them. The challenges they faced were so significant that some experimenters started blaming Chanute. They believed Chanute must have misrepresented what the Wrights had accomplished—perhaps on purpose. That was the only way they could170 account for their failure to achieve the great results obtained by the Wrights.

Robert Esnault-Pelterie, a member of the Aéro Club, pointed out that they had not put to a fair test the information on the Wright glider that Chanute had given them, because, he said, in building their gliders they had not strictly adhered to Chanute’s description and specifications. Since they had all the data needed to reproduce the glider that Chanute had reported as having been so successful, Esnault-Pelterie said, the way to determine the value of the information was to build a Wright glider exactly like Chanute had described and then test it to see how it performed. He himself then built such a machine, in 1904, and reported that he got the same performance as had the Wrights.

Robert Esnault-Pelterie, a member of the Aéro Club, pointed out that they hadn’t properly tested the information about the Wright glider that Chanute provided, because, he said, in building their gliders they hadn’t strictly followed Chanute’s descriptions and specifications. Since they had all the data needed to replicate the glider that Chanute reported as being so successful, Esnault-Pelterie mentioned that the best way to assess the value of the information was to build a Wright glider exactly as Chanute had described and then test it to see how it performed. He himself then built such a machine in 1904 and reported that he achieved the same performance as the Wrights.

While the French were carrying on these experiments with copies of the 1902 Wright glider, the Wrights themselves were busy with their power machine with which they made more than 100 starts in 1904. It was not until late October, 1906, or nearly three years after the Wrights’ first power flights, that a French power machine was flown. (This machine, piloted by Santos-Dumont, was reported to have made a hop of 200 feet, about ten feet above the ground.)

While the French were conducting experiments with copies of the 1902 Wright glider, the Wright brothers were busy with their powered aircraft, making over 100 flights in 1904. It wasn't until late October 1906, almost three years after the Wrights' first powered flights, that a French powered aircraft was flown. (This aircraft, piloted by Santos-Dumont, reportedly made a flight of 200 feet, about ten feet off the ground.)

Before long, Archdeacon and another member of the Aéro Club, Henri Deutsch de la Meurthe, were offering aviation prizes, and doing all they could to encourage someone to try to build a successful power plane. But as Captain Ferber later made clear to Georges Besançon, editor of L’Aérophile, in a letter171 Besançon published in his issue of June, 1907, this revival of interest in aviation in France, and whatever was accomplished, was all a direct outgrowth of information about what the Wrights had done in America.

Before long, the Archdeacon and another member of the Aéro Club, Henri Deutsch de la Meurthe, were offering aviation prizes and doing everything they could to motivate someone to successfully build a powered airplane. But as Captain Ferber later explained to Georges Besançon, editor of L’Aérophile, in a letter171 that Besançon published in the June 1907 issue, this resurgence of interest in aviation in France, and whatever progress was made, was all a direct result of information about what the Wrights had achieved in America.

In October, 1905, reports about the long flights accomplished that year by the Wrights with their power machine were received in France. They created an even greater stir in French aeronautical circles than had the earlier reports. Just at the time these reports reached France an organization was formed there to be known as the Fédération Aéronautique Internationale, the purpose of which was to verify and record the truth about reported aeronautical flights. The Aero Club of America, formed at about the same time, was made the official representative of the F.A.I. in America. No flight had as yet been made in France with a motor plane. Long afterward, many uninformed persons, even in the United States, declared that the flights by the Wrights prior to 1908 really should not count, as they had not been officially witnessed by any representative of the F.A.I.—the organization that came into being after the flights had been made!

In October 1905, news about the long flights achieved that year by the Wright brothers with their powered aircraft was received in France. This caused an even bigger excitement in French aviation circles than the earlier reports had. Just as these reports arrived in France, an organization was formed called the Fédération Aéronautique Internationale, aimed at verifying and recording the accuracy of reported aviation flights. The Aero Club of America, established around the same time, was designated as the F.A.I.'s official representative in the U.S. No flights had yet been conducted in France using a powered plane. Much later, many misinformed individuals, even in the United States, insisted that the Wright brothers' flights prior to 1908 shouldn't count, since they hadn't been officially witnessed by any representative of the F.A.I.—the organization that was created after the flights occurred!

As the tempo of interest increased, the Wrights were kept fairly busy writing letters to France in reply to requests for information. At the time of the first reports of the 1903 flights at Kitty Hawk, probably the only person in France inclined to believe them was Captain Ferber. Knowing what he did, from correspondence with Chanute, and with the Wrights themselves, he was not too incredulous. If he had said at first that he believed human flight might have occurred, he172 doubtless would have been laughed at—especially by those who had been most busily experimenting. But as early as May, 1905, Captain Ferber had written to the Wrights, asking if they would sell a power plane and at what price. They were not ready to discuss such a project at that time and, though Ferber wrote a second letter prodding them, they did not reply until October 9, four days after they had completed their most important flying experiments for that year.

As interest grew, the Wrights were kept pretty busy writing letters to France in response to requests for information. When the first reports of the 1903 flights at Kitty Hawk came out, probably the only person in France who was willing to believe them was Captain Ferber. Based on what he knew from his correspondence with Chanute and the Wrights themselves, he wasn't too skeptical. If he had initially claimed that he believed human flight might have happened, he would have likely been laughed at—especially by those who were most actively experimenting. However, as early as May 1905, Captain Ferber wrote to the Wrights, asking if they would sell a powered aircraft and at what price. They weren't ready to discuss such a project at that time, and even though Ferber sent a second letter nudging them, they didn't reply until October 9, four days after they had completed their most significant flying experiments for that year.

In that letter, after telling of their recent long flights, the Wrights said they were prepared to furnish machines on contract, to be accepted only after trial trips of at least forty kilometers, the machine to carry an operator and enough supplies of fuel for a flight of 160 kilometers. They said they would be willing to make contracts in which the minimum distance of the trial trip would be more than forty kilometers, but that the price of the machine would then be greater. They were also ready, the letter added, to build machines carrying more than one man. No figures as to price were given.

In that letter, after discussing their recent long flights, the Wrights mentioned that they were ready to provide machines on a contract basis, which would only be accepted after trial flights of at least forty kilometers. The machines would need to carry an operator and enough fuel for a flight of 160 kilometers. They stated they would be open to contracts where the minimum distance for the trial flight would exceed forty kilometers, but the price of the machine would then be higher. The letter also noted that they were prepared to build machines capable of carrying more than one person. No price details were provided.

Hoping to have the French War Department buy a plane, Ferber went to his chief, Colonel Bertrand, director of the laboratory of research pertaining to military aeronautics. But Colonel Bertrand told him the French Government could not commit itself to pay a sum “probably enormous” for an invention not yet authenticated. All that it was possible to do, said Bertrand, was to appoint and send a commission to see the Wrights.

Hoping to get the French War Department to buy a plane, Ferber went to his boss, Colonel Bertrand, who was in charge of the military aeronautics research lab. But Colonel Bertrand told him that the French Government couldn’t agree to pay probably an enormous amount for an invention that hadn't been proven yet. The only thing they could do, Bertrand said, was to assign a commission to visit the Wright brothers.

Again Ferber wrote to the Wrights, on October 21, asking what the price for a machine would be. He said173 he didn’t think his government would any longer be interested in paying so great a sum as it had been when he had first asked for a price.

Again, Ferber wrote to the Wrights on October 21, asking how much a machine would cost. He mentioned that he didn’t think his government would be willing to pay such a large amount as it had when he first requested a price.173

The Wrights replied, on November 4, saying they would consent to reduce their price to the French Government to one million francs—$200,000—the money to be paid only after the genuine value of their discoveries had been demonstrated by a flight of one of their machines in the presence of French Government representatives. Ferber had not told in his letter what the French Government had been willing to pay and the Wrights did not say what the price of one million francs was reduced from! The price was to include a complete machine, and instruction in the Wright discoveries relating to the scientific principles of the art; formulas for the designing of machines of other sizes and speeds; and personal instruction of operators in the use of the machine.

The Wrights responded on November 4, stating they would agree to lower their price for the French Government to one million francs—$200,000—pending payment only after the true value of their inventions was proven through a flight of one of their machines in front of French Government representatives. Ferber hadn't mentioned in his letter how much the French Government was originally willing to pay, and the Wrights didn't reveal what the initial price of one million francs was reduced from! The price was to cover a complete machine, along with training on the Wright discoveries related to the scientific principles of aviation; formulas for designing machines of various sizes and speeds; and personal training for operators in how to use the machine.

At the time Captain Ferber was thus dickering for the possible purchase of a Wright flying-machine, others in France who were interested in aeronautics still doubted if such a machine existed.

At the time Captain Ferber was negotiating for the potential purchase of a Wright flying machine, others in France who were interested in aviation still questioned whether such a machine actually existed.

About the middle of October, Frank S. Lahm, a member of the Aéro Club of France, had a chance meeting with his friend Patrick Y. Alexander, of the Aeronautical Society of Great Britain, who had visited the Wrights as recently as the previous April. Alexander expressed to Lahm his strong belief that the Wrights had actually been making power flights in America.

About the middle of October, Frank S. Lahm, a member of the Aéro Club of France, had a chance meeting with his friend Patrick Y. Alexander, from the Aeronautical Society of Great Britain, who had visited the Wrights just last April. Alexander told Lahm he strongly believed that the Wrights were actually making powered flights in America.

Lahm was an American. After going to France from Mansfield, Ohio, many years before, he had introduced174 the Remington typewriter to Europe. As a hobby he had taken up ballooning and held a pilot’s license. It was of more than casual interest to him that Alexander believed successful flights had been made in America. Lahm then made an effort to learn the facts from a source right in Dayton, Ohio. He wrote to Nelson Bierce, a manufacturer there whom he knew, asking what sort of people the Wrights were and what was known about their reported experiments. Bierce didn’t make any investigation, but wrote to Lahm, late in November, that the Wrights were considered men of good character, and that they were said to be carrying on some kind of flying experiments near Dayton; but, he said, no one seemed to know much about the nature of these experiments.

Lahm was an American. After leaving Mansfield, Ohio, many years ago to go to France, he introduced the Remington typewriter to Europe. He had taken up ballooning as a hobby and held a pilot’s license. It was more than just a passing interest for him that Alexander believed successful flights had occurred in America. Lahm then tried to learn more details from a source right in Dayton, Ohio. He wrote to Nelson Bierce, a manufacturer he knew there, asking what kind of people the Wrights were and what was known about their reported experiments. Bierce didn’t investigate, but wrote back to Lahm in late November, saying that the Wrights were considered good characters and were said to be conducting some kind of flying experiments near Dayton; however, he mentioned that no one seemed to know much about the specifics of these experiments.

Before there was time for Bierce’s letter to reach him, Lahm got other news about the Wrights. A letter they had sent on November 17, to Besançon, editor of L’Aérophile, giving a detailed account of their most recent experiments, had been published on November 30 in L’Auto, a Paris daily dealing with sports. Besançon had given the letter to L’Auto because his own next monthly issue would not go to press for a week or more and he was afraid a rival German publication might print, before he could, similar information from the Wrights.

Before Bierce’s letter had a chance to reach him, Lahm received more news about the Wrights. They had sent a letter on November 17 to Besançon, the editor of L’Aérophile, providing a detailed account of their latest experiments, which was published on November 30 in L’Auto, a daily sports newspaper in Paris. Besançon had shared the letter with L’Auto because his own next monthly issue wouldn’t be released for another week or so, and he was concerned that a competing German publication might print similar information from the Wrights before he could.

That letter to Besançon, containing much specific information, created a sensation. There was much animated talk about its contents that night of November 30 at the Aéro Club. Indeed, that date is noteworthy in175 aeronautical history, for publication of the letter to Besançon led to several important investigations.

That letter to Besançon, which had a lot of detailed information, caused quite a stir. There was plenty of lively discussion about its content that night of November 30 at the Aéro Club. In fact, that date is significant in 175 aeronautical history, as the publication of the letter to Besançon prompted several important investigations.

News about the Wrights’ recent flights that the letter revealed was taken up by one or two of the wire services and cabled back to the United States where it reached various newspapers, including those in Dayton. But Dayton editors couldn’t understand why the Wrights should have stirred up so much excitement in France.

News about the Wrights' recent flights that the letter revealed was picked up by a couple of wire services and sent back to the United States, where it reached various newspapers, including those in Dayton. But the Dayton editors couldn’t grasp why the Wrights had generated so much excitement in France.

One investigation was started by Lahm, now determined to get the facts. He had a brother-in-law in Mansfield, Ohio, Henry M. Weaver (a manufacturer of cash carriers for department stores); and Weaver had a son, Henry, Jr., perhaps not too busy to go to Dayton and find out all about the Wrights. Immediately after leaving his friends at the Aéro Club, Lahm sent this cable to the younger Weaver: “Verify what Wright brothers claim necessary go Dayton today prompt answer cable.”

One investigation was launched by Lahm, who was now set on getting the facts. He had a brother-in-law in Mansfield, Ohio, named Henry M. Weaver (a manufacturer of cash carriers for department stores); and Weaver had a son, Henry, Jr., who might not be too busy to go to Dayton and learn everything about the Wrights. Right after leaving his friends at the Aéro Club, Lahm sent this cable to the younger Weaver: “Verify what Wright brothers claim necessary go Dayton today prompt answer cable.”

The young man in Mansfield, never having heard of the Wrights, supposed the message must be for his father, then away on a business trip, and he forwarded it to him at the Grand Pacific Hotel in Chicago. It was received by the father on December 1, shortly after he had retired for the night. Weaver, Sr., didn’t at once recall ever having heard of the Wrights, but if they had a “claim” against his brother-in-law, he would see what could be done about settling it. As the question must be important he sent a wire to Dayton that very night. Having no street address for them, he addressed it simply to “Wright Brothers.” This message was not clear to the Wrights and their reply the next morning was as176 puzzling to Weaver as his had been to them. To get down to dots and make sure he was addressing the people he sought, Weaver then sent another telegram asking the Wrights if they knew F. S. Lahm, of Paris. The Wrights didn’t know Lahm but they knew of him and replied: “Yes Lahm French aeronaut.” When he noted that word “aeronaut,” Weaver began to remember vaguely having heard some years previously about two brothers who had experimented with a glider somewhere in the Carolinas. The mystery seemed to be lifting. Doubtless the Wrights had made a glider for Lahm and now there was some misunderstanding about the price. He immediately telegraphed again to the Wrights, saying he would arrive in Dayton the next morning (Sunday), and asking the Wrights to meet him at the Algonquin Hotel.

The young man in Mansfield, who had never heard of the Wrights, figured the message must be for his dad, who was away on a business trip, so he forwarded it to him at the Grand Pacific Hotel in Chicago. His dad received it on December 1, shortly after he had gone to bed for the night. Weaver Sr. didn’t immediately remember hearing about the Wrights, but if they had a “claim” against his brother-in-law, he’d see what he could do to settle it. Since the question seemed important, he sent a wire to Dayton that very night. Lacking a street address for them, he simply addressed it to “Wright Brothers.” This message was unclear to the Wrights, and their reply the next morning was just as puzzling to Weaver as his had been to them. To clarify and ensure he was reaching the right people, Weaver sent another telegram asking the Wrights if they knew F. S. Lahm, of Paris. The Wrights didn’t know Lahm personally but were aware of him and responded: “Yes, Lahm French aeronaut.” When he saw the word “aeronaut,” Weaver started to vaguely remember hearing a few years back about two brothers who had experimented with a glider somewhere in the Carolinas. The mystery seemed to be clearing up. It was likely the Wrights had made a glider for Lahm, and now there was some misunderstanding about the price. He immediately sent another telegram to the Wrights, saying he would arrive in Dayton the next morning (Sunday) and asking them to meet him at the Algonquin Hotel.

When he reached the hotel in Dayton, Weaver discovered that there was no firm of Wright Brothers in the telephone book or city directory. The hotel clerk had never heard of them. Others whom he asked if they knew of anyone in Dayton having a flying-machine looked at him blankly and shook their heads. Well, these Wrights must be somewhere, Weaver reflected, for they had replied to his two earlier telegrams. He may have feared that their place of business was closed for the week end before they could have received his telegram asking them to meet him. At any rate, he went to the office of the telegraph company. There he met the messenger boy who had delivered his message. The boy explained that the brothers had their office at the Wright Cycle Company but that, since it was Sunday,177 they could not be reached except at their home. Weaver then returned to his hotel. There he found Orville Wright waiting for him.

When he arrived at the hotel in Dayton, Weaver found that there was no listing for the Wright Brothers in the phone book or city directory. The hotel clerk had never heard of them. Others he asked if they knew anyone in Dayton who had a flying machine looked at him blankly and shook their heads. Well, these Wrights must be around somewhere, Weaver thought, since they had responded to his two earlier telegrams. He might have worried that their business would be closed for the weekend before they could get his message asking them to meet him. In any case, he went to the telegraph company office. There he met the messenger boy who had delivered his message. The boy explained that the brothers had their office at the Wright Cycle Company but that since it was Sunday,177 they could only be reached at their home. Weaver then went back to his hotel. There he found Orville Wright waiting for him.

As soon as they began to talk, Weaver said: “You made a glider, I believe, for Mr. Lahm, in Paris.”

As soon as they started talking, Weaver said: “You made a glider, right, for Mr. Lahm, in Paris.”

Orville, of course, shook his head. No, he said, they had never made a glider for Mr. Lahm.

Orville, of course, shook his head. No, he said, they had never made a glider for Mr. Lahm.

“Then,” asked Weaver, even more puzzled, “what in the world can be the meaning of this cable?” And he handed to Orville the message from Paris.

“Then,” asked Weaver, even more confused, “what on earth can this cable mean?” And he handed Orville the message from Paris.

Orville then understood. Evidently, he said, Lahm, a member of the Aéro Club of France, wished to find out if the report of their flights sent to the Aéro Club by the Wright brothers was true.

Orville then understood. Clearly, he said, Lahm, a member of the Aéro Club of France, wanted to verify if the report of their flights submitted to the Aéro Club by the Wright brothers was accurate.

As Weaver later reported in a letter to Lahm, he was already impressed by this younger Wright brother. “His very appearance would disarm any suspicion—with a face more of a poet than an inventor or promoter. In contour, head and face resemble Edgar Allan Poe ... very modest in alluding to the marvels they have accomplished ...”

As Weaver later mentioned in a letter to Lahm, he was already struck by this younger Wright brother. “Just his appearance would put anyone at ease—he looks more like a poet than an inventor or promoter. His shape, head, and face remind me of Edgar Allan Poe … very humble when talking about the amazing things they've achieved …”

Orville, somewhat amused, said if an investigation was desired, they might as well get right at it. It was too late in the season for flying, and the machine had been taken apart, but he could introduce the visitor to many responsible people who had seen them fly.

Orville, a bit amused, said that if they wanted to investigate, they might as well get started. It was too late in the season for flying, and the machine had been taken apart, but he could introduce the visitor to several credible people who had seen them fly.

Orville took him to the home of C. S. Billman, of the West Side Savings and Loan Company. The Billmans were a fairly large family and nearly all had seen the Wrights fly. When the callers were taken into the sitting-room the first member of the family to appear was178 a four-year-old boy. “Son,” asked Weaver jokingly, “have you ever seen a flying-machine?” He wasn’t expecting to get evidence just yet; but the boy began to run around the room, trying to imitate with his hands the motion of a propeller and to make a noise like the machine.

Orville took him to the home of C. S. Billman, from the West Side Savings and Loan Company. The Billman family was quite large, and nearly everyone had seen the Wrights fly. When the visitors were led into the living room, the first family member to show up was a four-year-old boy. “Hey, kid,” Weaver joked, “have you ever seen a flying machine?” He wasn’t really expecting a serious answer yet, but the boy started running around the room, trying to mimic the motion of a propeller with his hands and making noises like the machine.

Turning to Orville, Weaver laughingly observed: “I’m about convinced already. That boy couldn’t be a bribed witness.”

Turning to Orville, Weaver chuckled and said, “I’m almost convinced. That kid wouldn’t accept a bribe to be a witness.”

They also went, by interurban car, to talk with the Beard family, across from the flying field, and with Amos Stauffer, the nearest farmer up the road.

They also traveled by interurban train to talk with the Beard family, located across from the airfield, and with Amos Stauffer, the nearest farmer up the road.

As Weaver reported: “On October 5, he [Stauffer] was cutting corn in the next field east, which is higher ground. When he noticed the aeroplane had started on its flight he remarked to his helper: ‘Well, the boys are at it again,’ and kept on cutting corn, at the same time keeping an eye on the great white form rushing about its course. ‘I just kept on shocking corn,’ he continued, ‘until I got down to the fence, and the durned thing was still going round. I thought it would never stop.’ I asked him how long he thought the flight continued, and he replied it seemed to him it was in the air for half an hour.”

As Weaver reported: “On October 5, he [Stauffer] was cutting corn in the next field to the east, which is higher ground. When he saw the airplane take off, he said to his helper, ‘Well, the boys are at it again,’ and continued cutting corn, keeping an eye on the big white plane flying around. ‘I just kept on shocking corn,’ he continued, ‘until I reached the fence, and that darn thing was still going around. I thought it would never stop.’ I asked him how long he thought the flight lasted, and he replied it felt like it was in the air for half an hour.”

Then Orville and Weaver returned to Dayton and called on William Fouts, West Side druggist, who had witnessed the long flight on October 5.

Then Orville and Weaver went back to Dayton and visited William Fouts, a druggist from the West Side, who had seen the long flight on October 5.

Later they went to the Wright home. Of that visit Weaver wrote: “The elder brother, Wilbur, I found even quieter and less demonstrative than the younger. He looked the scholar and recluse. Neither is married.179 As Mr. Wright expressed it, they had not the means to support ‘a wife and a flying-machine too.’”

Later, they went to the Wright home. About that visit, Weaver wrote: “The older brother, Wilbur, seemed even quieter and less expressive than the younger one. He looked like a scholar and a hermit. Neither of them is married.179 As Mr. Wright put it, they didn’t have the resources to support ‘a wife and a flying machine too.’”

Weaver was completely convinced before he left Dayton, and on December 3, cabled to Lahm: “Claims completely verified.” A few days later, on December 6, back at his home in Mansfield, he rushed a letter to Lahm giving his evidence of what the Wrights had done.

Weaver was fully convinced before he left Dayton, and on December 3, he sent a cable to Lahm: “Claims completely verified.” A few days later, on December 6, back home in Mansfield, he hurried to write a letter to Lahm presenting his evidence of what the Wrights had accomplished.

In a little more than a week after Weaver’s visit to Dayton, another investigator appeared there, Robert Coquelle, representing L’Auto, of Paris. He had been in New York attending the six-day bicycle races and arrived in Dayton on December 12. Since his paper and Les Sports had taken opposite sides regarding the possibility that the Wrights had flown, and L’Auto had been pro-Wright, Coquelle wished to report on these “deux marchands de cycles” in a way to make a sensation. The imaginative tale he wrote about how “mysterious” were the Wrights was almost worthy of his compatriot, Dumas. The Wrights gave him names of people who had witnessed flights but it is believed he didn’t bother to consult many of them, evidently feeling sure he could invent a better story than they could tell him. However, Coquelle was convinced that the reports about the Wrights’ flights were not exaggerated and he cabled a preliminary dispatch to his paper: Wright brothers refuse to show their machine but I have seen some witnesses it is impossible to doubt.

In just over a week after Weaver’s visit to Dayton, another reporter showed up, Robert Coquelle, representing L’Auto from Paris. He had been in New York for the six-day bicycle races and arrived in Dayton on December 12. Since his publication and Les Sports took opposing views on whether the Wrights had actually flown, and deux marchands de cycles.” The imaginative story he crafted about how “mysterious” the Wrights were could almost rival that of his fellow countryman, Dumas. The Wrights provided him with names of people who had seen their flights, but it is believed he didn't consult many of them, probably thinking he could come up with a better story than they could tell. However, Coquelle was convinced that the reports about the Wrights’ flights were legit and sent a preliminary telegram to his paper: Wright brothers refuse to show their machine but I have seen some witnesses it is impossible to doubt.

On December 13, the day after Coquelle’s visit to Dayton, the Wrights sent another letter to M. Besançon, editor of L’Aérophile, in reply to questions of180 his, and gave him details of their recent flights, distances, height at which they flew, size of field, and so on. Incidentally the closing paragraph of that letter contained a statement in contradiction of a myth, still widely accepted:

On December 13, the day after Coquelle’s visit to Dayton, the Wrights sent another letter to M. Besançon, editor of L’Aérophile, responding to his questions. They provided details about their recent flights, including distances, altitude, field size, and more. Interestingly, the closing paragraph of that letter included a statement that contradicted a myth that is still widely believed:

The claim often made in the 19th century that the lack of sufficiently light motors alone prohibited man from the empire of the air was quite unfounded. At the speeds which birds usually employ, a well-designed flyer can in actual practice sustain a gross weight of 30 kilograms for each horsepower of the motor, which gives ample margin for such motors as might easily have been built 50 years ago.

The common belief in the 19th century that the absence of lightweight motors was the only thing stopping humans from taking to the skies was not true. At the speeds that birds typically fly, a well-designed aircraft can actually carry a weight of 30 kilograms for every horsepower of the engine, which provides plenty of leeway for the types of engines that could have been developed 50 years ago.

Before Besançon could have received this letter, with its details of recent flights, Robert Coquelle arrived in Paris, having taken a boat from New York only a day or two after his stay in Dayton, and his sensational story was published. Much of this report seemed so incredible that one member of the Aéro Club said it almost made him wonder if the Wright brothers existed at all.

Before Besançon could have received this letter, with its details of recent flights, Robert Coquelle arrived in Paris, having taken a boat from New York just a day or two after his stay in Dayton, and his sensational story was published. Much of this report seemed so unbelievable that one member of the Aéro Club said it almost made him question whether the Wright brothers even existed.

THE U. S. ARMY TEST. Preparing the Wright plane for a test at Fort Myer.

What Weaver had written in his letter seemed convincing enough to Lahm and he prepared a French translation of it to read to the aviation committee of the Aéro Club of France at a meeting on the night of December 29, 1905. That meeting, as Lahm later told about it to friends, and in an article he gave to the Mansfield (Ohio) News, published October 24, 1908, was a memorable one. The skeptical members of the committee, greatly in the majority, having heard of Weaver’s telegram, assumed the more elaborate report would be favorable to the Wrights, and were prepared to combat it. Characteristic of the French, there was almost ceremonious181 politeness at the beginning of the meeting because everyone supposed there might be less politeness as the discussions went on.

What Weaver wrote in his letter seemed convincing enough to Lahm, so he prepared a French translation to present to the aviation committee of the Aéro Club of France at a meeting on the night of December 29, 1905. That meeting, as Lahm later recounted to friends and in an article he submitted to the Mansfield (Ohio) News, published on October 24, 1908, was memorable. The skeptical committee members, who were mostly in the majority, had heard about Weaver’s telegram and assumed that the more detailed report would be favorable to the Wrights and were ready to challenge it. True to French tradition, there was an almost ceremonious politeness at the start of the meeting, as everyone expected there might be less politeness as the discussions progressed.

AT FORT MYER. Lieutenant Frank P. Lahm and Orville Wright with the Wright plane during the test at Fort Myer. Lieutenant Lahm was the first army officer to fly as a passenger in a plane.

By the time Lahm had finished reading the letter, everyone began to talk at once. Archdeacon, who presided, was famous for a high-pitched staccato voice and it could be heard calling for order as he also rapped on the table before him with a flat metal ruler.

By the time Lahm finished reading the letter, everyone started talking at once. The Archdeacon, who was in charge, was known for his high-pitched staccato voice, which could be heard demanding order as he rapped on the table in front of him with a flat metal ruler.

One member observed that they had seen nothing about the Wrights’ flights in American newspapers, recognized as enterprising. He found himself incapable of believing, he said, that all the journalists in America would permit so important a piece of news to escape them.

One member noted that they hadn't seen anything about the Wrights' flights in American newspapers, known for being resourceful. He found it hard to believe, he said, that all the journalists in America would let such an important piece of news slip by.

Another remarked that they had heard the Wright brothers were of modest enough wealth. Who, he asked, is their financier? It would be interesting to talk with him.

Another person mentioned that they had heard the Wright brothers were not very wealthy. "Who," he asked, "is their backer? It would be interesting to have a conversation with him."

Lahm was hard put to it to explain the lack of news about the flights in the American papers. He himself didn’t understand that. But he tried to explain that since the brothers did most of the mechanical work on their machine themselves they did not require financial assistance. His voice, however, was drowned in the hubbub. As the discussion continued, so vehement were the contradictions of the Weaver letter that Lahm, Ferber, Besançon, and Coquelle, the only ones present who seemed to believe it, hardly dared express themselves at all. Someone turned to Coquelle and asked him if he really accepted the stories of the Wrights’ flights.

Lahm struggled to explain why there was so little news about the flights in the American newspapers. He didn’t really get it either. But he attempted to point out that since the brothers did most of the mechanical work on their aircraft themselves, they didn’t need financial help. Unfortunately, his voice was drowned out by the noise. As the discussion went on, the fierce disagreements regarding the Weaver letter were so intense that Lahm, Ferber, Besançon, and Coquelle— the only ones present who seemed to believe it— barely felt they could speak up. Someone turned to Coquelle and asked if he truly believed the stories about the Wright brothers’ flights.

“I do,” he said—but in a low voice.

“I do,” he said, but in a quiet voice.

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All conceded that Lahm’s friend Weaver had doubtless been sincere in what he wrote but they insisted that he had somehow been fooled. They “knew” flight was impossible with a motor of only twelve horsepower. Indeed, many had decided that power flight would always be an impossibility. This belief was all the stronger because a number present had personally done enough in attempts to fly to know the difficulties.

Everyone agreed that Lahm’s friend Weaver had definitely been genuine in what he wrote, but they insisted that he had somehow been misled. They “knew” that flying was impossible with just a twelve-horsepower engine. In fact, many had concluded that powered flight would always be impossible. This belief was reinforced by the fact that several people present had personally experienced enough attempts to fly to understand the challenges involved.

One member after another strolled into an adjoining room where they could argue without being called to order. Finally Archdeacon found himself nearly alone. When, long after midnight, the meeting finally broke up the one thing all were agreed upon was that human flight, if true, was of vast consequence.

One member after another wandered into a nearby room where they could debate without being interrupted. Eventually, Archdeacon found himself almost alone. When the meeting finally wrapped up long after midnight, everyone agreed on one thing: if human flight was real, it was incredibly significant.

When the Wrights learned how great was the incredulity at the Aéro Club in France they were only amused that the stories seemed to the French too wonderful to be true.

When the Wrights found out how shocked the Aéro Club in France was, they were just amused that the stories seemed too amazing for the French to believe.

On December 31 the Weaver letter to Lahm was published in full in L’Auto. The next day it appeared in the Paris edition of the New York Herald and also in Les Sports, competitor of L’Auto.

On December 31, the Weaver letter to Lahm was published in full in L’Auto. The next day, it appeared in the Paris edition of the New York Herald and also in Les Sports, a competitor of L’Auto.

Though the Aéro Club did not yet know it, Captain Ferber in November had started still another investigation. He had written to the Wrights on November 15, asking permission to send an “official” commission to see them. The Wrights answered on December 5 that they thought it highly advisable that the French Government send a commission to make a thorough investigation of their claims, and that it should be done at once. Eight days later the Wrights received a cable183 from Ferber saying: “Friend with full powers for stating terms of contract will sail next Saturday.” Ferber also sent a letter, a copy of which, he said, would be carried by Arnold Fordyce as his means of identification, but this letter did not reach the Wrights until after the visitor had arrived. As Ferber only a few weeks before had asked permission to send a military commission, the brothers supposed the man en route to Dayton represented the War Ministry.

Though the Aéro Club didn't know it yet, Captain Ferber had initiated another investigation in November. On November 15, he wrote to the Wrights, asking for permission to send an “official” commission to meet with them. The Wrights replied on December 5, stating that they believed it was very important for the French Government to send a commission to thoroughly investigate their claims, and that it should happen right away. Eight days later, the Wrights got a cable from Ferber saying: “A friend with full powers to discuss contract terms will sail next Saturday.” Ferber also sent a letter, a copy of which he mentioned would be brought by Arnold Fordyce as his means of identification, but this letter didn’t reach the Wrights until after the visitor had arrived. Since Ferber had asked for permission to send a military commission just a few weeks earlier, the brothers assumed the person heading to Dayton represented the War Ministry.

Arnold Fordyce, the French emissary, arrived in New York on the Lorraine, and reached Dayton shortly after Christmas, 1905. He was about thirty-five years old, formerly an actor, of characteristic French politeness, and he spoke English. His first meeting with the Wrights was in their office over the old bicycle shop.

Arnold Fordyce, the French envoy, arrived in New York on the Lorraine and got to Dayton shortly after Christmas in 1905. He was around thirty-five years old, previously an actor, known for his typical French politeness, and he spoke English. His first encounter with the Wrights was in their office above the old bicycle shop.

To the Wrights’ surprise he told them, in reply to a question, that he had no connection with the French War Ministry. He had come, he said, on behalf of a syndicate of wealthy men who wished to buy a flying-machine and to present it to the French Government for the national defense. He said he was secretary to M. Letellier, member of the syndicate and owner and editor of the Paris newspaper, Le Journal. He went on to explain that Letellier and his associates in the syndicate were presenting the plane to the Government with the hope they might receive decorations of the Legion of Honor. His story seemed to the Wrights a bit fishy. They thought it more probable that he was really representing the French War Ministry, but that the War Ministry did not wish to appear directly in negotiations for a flying-machine. The Wrights went ahead, though,184 to give him the information he sought. First of all, he wished to make sure that they really had a machine that would fly. They arranged for him to meet a number of trustworthy persons who had witnessed flights, among them bankers, other prominent businessmen, and county officials.

To the Wrights' surprise, he told them, in response to a question, that he had no ties to the French War Ministry. He said he was here on behalf of a group of wealthy individuals who wanted to buy a flying machine and gift it to the French Government for national defense. He mentioned that he was the secretary to M. Letellier, a member of the group and the owner and editor of the Paris newspaper, Le Journal. He went on to explain that Letellier and his associates were offering the plane to the Government in hopes of receiving honors from the Legion of Honor. The Wrights found his story a bit suspicious. They thought it was more likely that he was actually representing the French War Ministry but that the Ministry preferred not to be directly involved in negotiations for a flying machine. Still, the Wrights decided to provide him with the information he was looking for. First, he wanted to confirm that they indeed had a machine that could fly. They set up a meeting for him with several reliable individuals who had witnessed flights, including bankers, other prominent businesspeople, and county officials.184

Fordyce was soon convinced that the machine would do all that had been claimed for it, and he wanted a contract to take back with him to his principals. Though Ferber’s cable had stated that Fordyce was coming with “full powers” he did not have a power-of-attorney to represent his principals. Still believing that Fordyce’s true mission was in the interest of the French War Ministry, the Wrights had no objection to entering into a contract with him granting an option for a short period. They made it clear, however, that they reserved the right to deal with their own Government at any time, even though the United States War Department had not seemed appreciative of their former offers of exclusive rights to the aeroplane. They also made it clear that Letellier and his associates in the “syndicate” would have no rights whatever in the machine except the right to pay for it. The machine would be delivered only to the French Government.

Fordyce quickly became convinced that the machine would live up to its claims, and he wanted a contract to take back to his bosses. Even though Ferber’s message said that Fordyce was coming with "full powers," he didn't actually have the authority to represent his principals. Still believing that Fordyce’s real mission was to benefit the French War Ministry, the Wrights agreed to a contract with him that allowed for a short-term option. However, they made it clear that they reserved the right to negotiate with their own Government at any time, even though the United States War Department hadn't shown much interest in their previous offers for exclusive rights to the airplane. They also clarified that Letellier and his partners in the "syndicate" would have no rights to the machine, except for the obligation to pay for it. The machine would only be delivered to the French Government.

The Fordyce option was for the purchase of one flying-machine at a price of 1,000,000 francs, or $200,000, the price the Wrights already had set in a letter to Captain Ferber. The option was to become void if the holder failed by February 5, 1906, to deposit in escrow with J. P. Morgan & Co., New York, 25,000 francs ($5,000) to the joint credit of the Wright brothers and185 Arnold Fordyce. It was provided that the contract would become null and void if the holder failed to make a further deposit in escrow with J. P. Morgan & Co. by April 5, 1906, to bring the total to 1,000,000 francs. But if the holder failed to deposit altogether 1,000,000 francs, as stipulated, then the first deposit of 25,000 francs would belong to the Wright brothers. If on the other hand the Wrights failed to carry out any part of their own obligations under the contract they would receive nothing.

The Fordyce option was for buying one flying machine for 1,000,000 francs, or $200,000, the price the Wright brothers had already set in a letter to Captain Ferber. The option would become invalid if the holder didn’t deposit 25,000 francs ($5,000) in escrow with J. P. Morgan & Co., New York, to the joint account of the Wright brothers and Arnold Fordyce by February 5, 1906. It was also stated that the contract would become null and void if the holder failed to make an additional deposit in escrow with J. P. Morgan & Co. by April 5, 1906, bringing the total to 1,000,000 francs. However, if the holder failed to deposit the entire 1,000,000 francs as agreed, then the initial deposit of 25,000 francs would belong to the Wright brothers. Conversely, if the Wright brothers failed to fulfill any of their obligations under the contract, they would receive nothing.

On February 5, 1906, the date stated in the option for the first deposit, the Wrights received a telegram from Morgan, Harjes & Co., Paris, stating that 25,000 francs had been deposited with them in escrow to the joint credit of the Wright Brothers and Arnold Fordyce. This seemed to confirm the suspicion held by the Wrights that Fordyce represented the French Ministry of War and not a syndicate. But this suspicion later proved to be false.

On February 5, 1906, the date mentioned in the option for the first deposit, the Wrights received a telegram from Morgan, Harjes & Co., Paris, saying that 25,000 francs had been deposited with them in escrow for the joint credit of the Wright Brothers and Arnold Fordyce. This appeared to confirm the Wrights' suspicion that Fordyce represented the French Ministry of War rather than a syndicate. However, this suspicion was later found to be incorrect.

Some time after the Wrights had given this option they heard an entirely different story about the nature of Fordyce’s mission. According to this story, Captain Ferber, unable to persuade his superior officers in the War Ministry to send an official investigator to Dayton, had hit on the idea of having an investigation made by a Paris newspaper. He then went to see Letellier, owner of Le Journal. Letellier saw the possibilities of prestige for his paper by being able to print the facts about the Wrights. If they really had flown, that would be of great interest, and if they were only “bluffers,” as many in France thought they were, the truth about them186 would still be worth publishing. Letellier could well have afforded the gamble of sending an investigator to Dayton. Aside from his ownership of Le Journal, he was a man of considerable wealth, having made his money as a contractor. He had built the main fortresses at Liège.

Some time after the Wrights had offered this option, they heard a completely different story about Fordyce’s mission. According to this version, Captain Ferber, unable to convince his superiors in the War Ministry to send an official investigator to Dayton, decided to have a Paris newspaper conduct an investigation instead. He then went to see Letellier, the owner of Le Journal. Letellier recognized the prestige that could come to his paper by printing the facts about the Wrights. If they really had flown, that would attract significant interest, and if they were just "bluffers," as many in France believed, the truth about them186 would still be worth reporting. Letellier could easily afford to take the risk of sending an investigator to Dayton. In addition to owning Le Journal, he was quite wealthy, having made his fortune as a contractor. He had constructed the main fortresses at Liège.

Whatever the truth may have been, if Letellier had intended to publish what Fordyce learned about the Wrights, he did not at once do so. He took the Fordyce option and presented it to the War Ministry and he received in return a letter from the Minister of War stating that if a Wright plane were acquired by the Ministry the purchase would be made through Le Journal. Thus Le Journal not only would have a big “scoop” on news of the purchase, but would receive credit and acclaim for a big patriotic act. Perhaps the owner of the paper would be decorated!

Whatever the truth was, if Letellier planned to publish what Fordyce found out about the Wrights, he didn't do it right away. He chose the Fordyce option and presented it to the War Ministry, and in return, he received a letter from the Minister of War saying that if the Ministry acquired a Wright plane, the purchase would be made through Le Journal. This way, Le Journal would not only have a major “scoop” about the purchase but would also get recognition and praise for a significant patriotic act. Maybe the paper's owner would even get honored!

For some time war clouds had been gathering over Morocco and it looked as if there might be trouble between France and Germany. If war should come, a flying-machine for scouting purposes would be of great value. But in spite of the fact that a Frenchman, Fordyce, had been to see the Wrights and reported favorably about them, the French war chiefs couldn’t bring themselves to accept as a certainty the existence of a practical flying-machine. The story seemed too incredible. There must be a “catch” somewhere. Still, the War Ministry was willing to risk making the down payment of 25,000 francs.

For a while, tensions were rising in Morocco, and it seemed like trouble was brewing between France and Germany. If war broke out, an aircraft for scouting would be really valuable. However, even though a Frenchman named Fordyce visited the Wright brothers and spoke highly of them, the French military leaders couldn't fully believe that a functional flying machine actually existed. The idea seemed too unbelievable. There had to be a catch. Still, the War Ministry was ready to take the leap and make a down payment of 25,000 francs.

But when M. Etienne sent the down payment of 25,000 francs to Morgan, Harjes & Co., the Paris branch187 of the banking firm of J. P. Morgan & Co., on the last day of the allotted time, he nearly lost the option, for an unexpected reason. Morgan, Harjes & Co. did not wish to accept the money. Though the bank was under American control, French procedure prevailed, and its officers were reluctant to hold money in escrow. They feared there might be a dispute as to whether it finally would belong to the War Ministry that deposited it, or to the Wrights. It required eight hours of perspiring persuasion on the part of a War Ministry representative before the bankers agreed to accept the money and the option became binding.

But when M. Etienne sent the down payment of 25,000 francs to Morgan, Harjes & Co., the Paris branch of the banking firm of J. P. Morgan & Co., on the last day of the allotted time, he nearly lost the option for an unexpected reason. Morgan, Harjes & Co. didn't want to accept the money. Even though the bank was under American control, French procedures applied, and its officers were hesitant to hold money in escrow. They were concerned there might be a dispute about whether the funds would ultimately belong to the War Ministry that deposited them or to the Wrights. It took eight hours of intense persuasion from a representative of the War Ministry before the bankers agreed to accept the money, making the option binding.

After the option was in force, but before the date set in the contract for the final payment, the French War Ministry sent a commission to Dayton for the purpose of obtaining some amendments to the contract, pertaining to the test flights.

After the option was active, but before the date specified in the contract for the final payment, the French War Ministry sent a team to Dayton to negotiate some changes to the contract regarding the test flights.

This commission, which sailed from Cherbourg on the Saint Paul, was headed by Commandant Bonel, of the Army Engineer Corps. Another member was Arnold Fordyce. They reached New York on March 18, 1906. The other two members were Captain Fournier, military attaché of the French Embassy at Washington, and Walter V. R. Berry, an American subject, who was legal counselor to that embassy. Though Fordyce was by now zealously pro-Wright, the men at the War Ministry had no fear of his exerting too much influence on the others, because of the presence of Commandant Bonel, who was outspokenly skeptical. He had witnessed tests by the French Government of the unsuccessful machine designed by Clement Ader, a few years188 previously, and was convinced that no heavier-than-air machine had ever flown or ever could. Bonel would hardly let the commission make a fool of itself. Since he was the only one of the four who spoke no English, he would need to have everything explained to him—all the more reason why he would not be easily imposed upon.

This group, which set sail from Cherbourg on the Saint Paul, was led by Commandant Bonel from the Army Engineer Corps. Another member was Arnold Fordyce. They arrived in New York on March 18, 1906. The other two members were Captain Fournier, the military attaché of the French Embassy in Washington, and Walter V. R. Berry, an American who served as the legal counselor to that embassy. Even though Fordyce was now very pro-Wright, the people at the War Ministry weren't worried about him having too much sway over the others because Commandant Bonel, who was openly skeptical, was part of the group. He had seen the French Government’s tests of the unsuccessful machine designed by Clement Ader a few years188 earlier and was convinced that no heavier-than-air machine had ever flown or ever would. Bonel would likely prevent the commission from embarrassing themselves. Since he was the only one of the four who didn't speak English, he would need everything explained to him—which just meant he wouldn’t be easily manipulated.

Before the French quartet had been in Dayton long, however, Bonel was the most enthusiastic convert of all. The visitors met dependable witnesses of flights who had previously talked to Fordyce; and photographs of the machine in flight could hardly be fakes. Most of all, they were impressed by the obviously high character of the Wrights themselves. In cables to France they strongly recommended that the deal be closed.

Before the French quartet had been in Dayton long, however, Bonel was the most enthusiastic supporter of all. The visitors met reliable witnesses of flights who had previously spoken to Fordyce, and the photos of the machine in flight could hardly be fakes. Most importantly, they were impressed by the obviously high character of the Wrights themselves. In messages to France, they strongly recommended that the deal be finalized.

But while the commission was still in Dayton, the European war crisis had subsided. Even before the formal settlement of the dispute, at the close of the conference at Algeciras, Spain, on April 7, it was known that France would still have a favored position in Morocco, and the need for a scouting plane by the French Army became less pressing. The War Ministry now began to demand more and more in airplane performance. They would cable asking if the plane could fly at an altitude of at least 1,000 feet; if the speed could be greater than hitherto mentioned. Then the next day there would be a request for greater weight-carrying capacity. The Wrights, slow as always to make rash promises, said frankly that they had never flown much higher than 100 feet, but that the plane could fly at much more than 1,000 feet, though they would probably need additional practice before making a demonstration. They could189 increase either the speed or the weight-carrying capacity, too; but it would not be easy to do both in the same machine—no more than one could produce a draft horse and a race horse in the same animal.

But while the commission was still in Dayton, the European war crisis had calmed down. Even before the formal resolution of the dispute, at the end of the conference in Algeciras, Spain, on April 7, it was clear that France would still have a preferred position in Morocco, and the French Army's need for a scouting plane became less urgent. The War Ministry started to demand more and more from airplane performance. They would send a telegram asking if the plane could fly at an altitude of at least 1,000 feet; if its speed could exceed what was previously mentioned. Then the following day, there would be a request for higher weight-carrying capacity. The Wrights, cautious as always about making bold promises, admitted that they had never flown much higher than 100 feet, but that the plane could definitely fly much higher than 1,000 feet, though they would likely need more practice before making a demonstration. They could increase either the speed or the weight-carrying capacity, too; but it would be challenging to do both in the same machine—just like you couldn't create a draft horse and a racehorse in the same animal.

The demonstrations of the machine the Wrights agreed to make were already stiff enough, and if they failed on any one of them, within the allotted time, even if only on account of delay caused by accident, their contract would be broken; but they felt sure of what they could do and were willing to take the chance.

The demonstrations of the machine the Wrights agreed to make were already tough enough, and if they failed on any one of them within the set time, even if it was just because of an accident, their contract would be broken; but they were confident in what they could do and were ready to take the risk.

When the time limit for the deposit of the rest of the 1,000,000 francs with J. P. Morgan expired, on April 5, the commission was recalled. Before leaving Dayton the visitors expressed their own vexation over the rejection by the Paris officials of their recommendations.

When the deadline for depositing the remaining 1,000,000 francs with J. P. Morgan ended on April 5, the commission was called back. Before departing Dayton, the visitors voiced their frustration over the Paris officials' rejection of their recommendations.

The members of the commission still believed, though, that when Bonel and Fordyce were back in Paris and presented all the facts to the War Ministry, there would be an extension of time and the deal carried out. But it never was. The French Minister of War agreed, however, that the Wrights were entitled to receive the forfeit money of 25,000 francs held in escrow by J. P. Morgan & Co.

The commission members still believed that once Bonel and Fordyce returned to Paris and presented all the facts to the War Ministry, there would be a time extension and the deal would go through. But it never happened. The French Minister of War did agree, though, that the Wrights were entitled to receive the forfeited money of 25,000 francs held in escrow by J. P. Morgan & Co.

Before leaving Dayton, the Frenchmen said they believed they knew what was back of the failure to close the deal. They said frankly that it was probably the present attitude of Captain Ferber, the man who had been instrumental in starting the negotiations. Ferber, they thought, with the Moroccan question no longer pressing, had now decided that with his knowledge of the Wright plane he could build one himself, and so190 become the French pioneer in aviation—a greater honor than being merely the instrument of introducing the aeroplane into France.

Before leaving Dayton, the Frenchmen said they believed they understood the reason behind the failure to finalize the deal. They stated frankly that it was likely due to Captain Ferber's current attitude, the man who had played a key role in starting the negotiations. They thought that, with the Moroccan issue no longer urgent, Ferber had decided he could use his knowledge of the Wright plane to build one himself and become the French pioneer in aviation—an even greater honor than just being the one to introduce the airplane to France. 190

During the time the Frenchmen were at their hotel in Dayton, it might have been expected that their presence would become known to local newspapermen and that the world would have learned of what was going on. To avoid attracting attention they had taken the precaution to avoid the Hotel Algonquin where Fordyce had stayed on his earlier visit, and were at the Beckel House. They were unmolested there until an employee of one of the telegraph offices “tipped off” a reporter friend. The telegrapher had noticed various cables in code going to France and felt sure the Frenchmen must be carrying on an important deal. A reporter nabbed Fordyce and Bonel one evening in the hotel lobby on their return from a theater. As Bonel spoke no English, Fordyce parried the reporter’s questions. He thought a plausible explanation of their presence would be that they were studying the water system of a typical American city. But what he said was that they were studying Dayton’s “water pipes.” That satisfied as well as amused the reporter and nothing about the French commission got into the papers.

During the time the Frenchmen were at their hotel in Dayton, it was expected that locals would hear about their presence and that the news would spread. To keep a low profile, they chose to stay at the Beckel House instead of the Hotel Algonquin, where Fordyce had previously lodged. They went unnoticed until an employee at one of the telegraph offices tipped off a reporter friend. The telegrapher had seen several coded messages being sent to France and believed the Frenchmen were involved in something significant. One evening, a reporter caught Fordyce and Bonel in the hotel lobby as they returned from a show. Since Bonel didn’t speak English, Fordyce handled the reporter’s questions. He thought a believable reason for their visit would be that they were examining the water system of a typical American city. However, he referred to it as studying Dayton’s “water pipes.” That explanation not only satisfied the reporter but also amused him, and nothing about the French commission made it to the newspapers.

The local newspapermen had failed to note that, after Fordyce’s previous visit, the New York Herald of January 4 had printed a brief item about his having seen the Wrights to discuss a contract. It never occurred to anyone in Dayton that the Wright brothers could have attracted visitors from across the Atlantic, for the Wrights still were not “news.” If the Frenchmen191 had made a statement that they were there dickering with the Wrights for a $200,000 contract, it is possible that the local papers would not have printed it. They might not have believed such a tale.

The local reporters completely missed that, after Fordyce's last visit, the New York Herald on January 4 had run a short piece about him meeting with the Wright brothers to talk about a contract. No one in Dayton ever thought the Wright brothers could attract visitors from across the Atlantic, since the Wrights still weren't considered "news." If the Frenchmen had announced that they were there negotiating with the Wrights for a $200,000 contract, it's likely that the local newspapers wouldn't have published it. They probably wouldn't have believed such a story.

Only a few days after the French commission had left Dayton, another foreign visitor dropped in on the Wrights—the Englishman, Patrick Y. Alexander.

Only a few days after the French delegation had left Dayton, another foreign visitor showed up to see the Wrights—an Englishman named Patrick Y. Alexander.

After some casual talk, he inquired with seeming innocence, as if just to make conversation: “Is the French commission still here?”

After a bit of casual chatting, he asked with a hint of innocence, like he was just trying to keep the conversation going: “Is the French commission still here?”

The Wrights were startled. So great had been the secrecy about the visit of the Frenchmen that not many even in the French Government were permitted to know about their trip to Dayton. How did this mysterious Britisher know about it? The Wrights assumed that he must have been a volunteer worker in the British secret service. It was now obvious that he had crossed the Atlantic for no other purpose than to call on the Wrights and had hoped to burst in upon them while the Frenchmen were still there. After a stay of only one day in Dayton he hastened back to New York to sail on the next boat. His call made it all the more clear that the British were then more interested in what other European governments were doing about planes than in acquiring an air fleet of their own.

The Wrights were shocked. The secrecy surrounding the Frenchmen's visit was so intense that very few, even within the French Government, were allowed to know about their trip to Dayton. How did this mysterious Brit know about it? The Wrights figured he must have been a volunteer in the British secret service. It became clear that he crossed the Atlantic just to see the Wrights and had hoped to interrupt them while the Frenchmen were still there. After only one day in Dayton, he rushed back to New York to catch the next boat. His visit made it even clearer that the British were more interested in what other European governments were doing with planes than in building up their own air fleet.

Incredulity about the Wrights’ power flights continued at the Aéro Club and in newspaper circles in France. In November, 1906, the Wrights received a visitor in Dayton, Sherman Morse, representing the New York Herald. His introduction was a cabled message to his managing editor from the owner of the paper, James192 Gordon Bennett, in Paris. The message said: Send one of your best reporters to Dayton to get truth about Wright brothers’ reported flights.

Skepticism about the Wrights' powered flights persisted at the Aéro Club and among newspaper circles in France. In November 1906, the Wrights welcomed a visitor in Dayton, Sherman Morse, who was representing the New York Herald. His introduction came in the form of a cable from his managing editor, sent by the paper's owner, James Gordon Bennett, from Paris. The message read: Send one of your top reporters to Dayton to find out the truth about the Wright brothers' reported flights.

The reporter got the truth and wrote intelligent articles that appeared in the New York Herald. These included reports of men who had witnessed flights. Parts of the Morse articles appeared in the Herald’s Paris edition on November 22 and 23. But evidently those in charge of the Paris Herald still were not convinced by the reports from Dayton by their own man. On November 28, the Paris Herald had an editorial about the Wrights which included the statement that in Europe curiosity about their machine was “clouded with skepticism owing to the fact that information regarding the invention is so small while the results which its inventors claim to have achieved are so colossal.” And the next day, the Paris Herald gave space to a news item in which Santos-Dumont was reported as saying that he “did not find any evidence of their [the Wrights] having done anything at all.”

The reporter uncovered the truth and wrote insightful articles that were published in the New York Herald. These included accounts from men who had witnessed flights. Parts of the Morse articles appeared in the Herald’s Paris edition on November 22 and 23. However, it seemed that those managing the Paris Herald were still not persuaded by the reports from Dayton by their own correspondent. On November 28, the Paris Herald ran an editorial about the Wrights that stated curiosity about their machine in Europe was “clouded with skepticism due to the fact that information regarding the invention is so limited while the results that its inventors claim to have achieved are so extraordinary.” The following day, the Paris Herald also included a news item in which Santos-Dumont was quoted as saying that he “did not find any evidence of their [the Wrights] having done anything at all.”

Late in 1906, Frank S. Lahm, who had cabled his brother-in-law, Weaver, to make an investigation, was in the United States, and he, accompanied by Weaver, went on November 22 to see the Wrights in Dayton. He was convinced, of course, that their statements could be relied upon, but he made further investigation of his own, interviewing witnesses not previously seen by Weaver. After his return to Paris, he prepared a long letter to the Paris Herald, in which he expressed his belief in the reported flights. The newspaper devoted a column to the Lahm letter on February 10,193 1907. But having distrusted what their own representative had written, it was not to be expected that the editors would give full belief to what Lahm now told them. In the same issue as his letter, was an editorial headed “Flyers or Liars.” “The Wrights have flown or they have not flown,” the paper profoundly stated. “They possess a machine or they do not possess one. They are in fact either flyers or liars.... It is difficult to fly; it is easy to say ‘we have flown.’”

Late in 1906, Frank S. Lahm, who had messaged his brother-in-law, Weaver, to conduct an investigation, was in the United States. On November 22, he and Weaver went to meet the Wrights in Dayton. He was convinced that their claims were trustworthy, but he conducted further investigations of his own, interviewing witnesses that Weaver hadn't spoken to yet. After returning to Paris, he wrote a lengthy letter to the Paris Herald, expressing his belief in the reported flights. The newspaper featured his letter in a column on February 10,193 1907. However, since they had doubted what their own representative had reported, it was unlikely the editors would fully believe what Lahm was telling them now. In the same issue as his letter, there was an editorial titled “Flyers or Liars.” “The Wrights have flown or they have not flown,” the paper stated emphatically. “They have a machine or they do not have one. They are either flyers or liars.... It's hard to fly; it's easy to say ‘we have flown.’”


The Wrights were at work in 1906 developing a new engine having vertical instead of horizontal cylinders. Though they were doing no flying, brief references to them occasionally appeared in newspapers. These caught the attention of a New York businessman, U. S. Eddy, who thought the Wrights and their patents might be of interest to Charles R. Flint & Company, New York bankers and promoters. Eddy was a former partner of Flint in a shipping line and knew that they were constantly on the lookout for new inventions worthy of their consideration. Partly to do a favor for an old friend and associate, he decided to go to Dayton for a talk with the Wrights.

The Wrights were working in 1906 on a new engine with vertical rather than horizontal cylinders. Although they weren't flying at the time, there were occasional brief mentions of them in newspapers. These caught the eye of a New York businessman, U.S. Eddy, who believed the Wrights and their patents might interest Charles R. Flint & Company, New York bankers and promoters. Eddy was a former partner of Flint in a shipping company and knew they were always looking for new inventions worth considering. To help an old friend and associate, he decided to travel to Dayton for a meeting with the Wrights.

Eddy arrived in Dayton on Thanksgiving Day and saw the Wrights the next day. They did not discuss business at this meeting. Eddy simply got acquainted with them, and satisfied himself that any statements they made about their invention could be depended upon; but he did tell them he felt sure the Flint firm would be much interested in helping them to develop the machine’s financial possibilities.

Eddy arrived in Dayton on Thanksgiving Day and saw the Wrights the next day. They didn’t talk about business at this meeting. Eddy just got to know them and made sure that any claims they made about their invention could be trusted; however, he did mention that he was confident the Flint company would be very interested in helping them explore the financial potential of the machine.

The Wrights left Dayton on December 5 for New York, to attend an exhibit to be given by the newly formed Aero Club of America. Before leaving New195 York they went with Eddy to meet F. R. Cordley, a member of the Flint firm. At this time Flint was in Europe, but the Wrights met him in New York not long afterward. Flint was often over-enthusiastic about new projects, and Cordley was the more cautious member of the firm. His job was to hold Flint in check. But he, as well as Flint and other associates, was favorably impressed by the Wrights, and they began to talk business. On December 26, 1906, George H. Nolte, an employee of the firm, went to Dayton to work out preliminary details. At first the Flints spoke of the possibility of buying all European rights to the airplane; but the deal finally made was that the Flints should be the Wrights’ business representatives, on a twenty per cent commission basis, in all countries except the United States. A year or two later it was agreed that the Wrights should manage their own affairs also in Great Britain and its colonies.

The Wrights left Dayton on December 5 for New York to attend an exhibit hosted by the newly formed Aero Club of America. Before leaving New York, they went with Eddy to meet F. R. Cordley, a member of the Flint firm. At that time, Flint was in Europe, but the Wrights met him in New York not long afterward. Flint was usually very enthusiastic about new projects, while Cordley was the more cautious member of the firm, responsible for keeping Flint grounded. However, Cordley, along with Flint and other partners, was impressed by the Wrights, and they began discussing business. On December 26, 1906, George H. Nolte, an employee of the firm, went to Dayton to work out preliminary details. Initially, the Flints talked about the possibility of acquiring all European rights to the airplane, but the final agreement was that the Flints would be the Wrights’ business representatives on a twenty percent commission basis, in all countries except the United States. A year or two later, it was decided that the Wrights would also manage their own affairs in Great Britain and its colonies.

The Flints proposed that they would have the Czar of Russia, and certain other crowned heads, request private demonstrations of the flying-machine. But the Wrights were not impressed by such suggestions and in a letter to the Flints said they thought it would be better for them to “look the ground over first before making arrangements with the Czar.”

The Flints suggested that they should get the Czar of Russia and a few other kings to ask for private demonstrations of the flying machine. However, the Wrights weren't sold on this idea and replied in a letter to the Flints that they thought it would be better to "check things out first before making plans with the Czar."

The Flints had an associate in Europe, Hart O. Berg, who, in 1899, had helped to introduce American electric automobiles on the continent. He had acted, too, for Simon Lake, inventor of the submarine, in dealing with Russia and other foreign governments. They thought Berg might be able to start negotiations for196 forming a European Wright company. But Berg, not knowing the Wrights, and feeling scant confidence in what they were reported to have done, was less than lukewarm over the idea. Flint suggested that it would be well for at least one of the Wrights to go to Europe, with expenses paid, to discuss their invention with Berg and give him more faith in it. The Wrights themselves, said Flint, could do more than anyone else to implant in Berg the wholehearted enthusiasm he would need to convince possible buyers.

The Flints had a partner in Europe, Hart O. Berg, who, in 1899, had helped introduce American electric cars to the continent. He had also represented Simon Lake, the inventor of the submarine, in negotiations with Russia and other foreign governments. They thought Berg might be able to start talks about forming a European Wright company. But since Berg didn’t know the Wrights and had little confidence in what they were said to have accomplished, he wasn’t too enthusiastic about the idea. Flint suggested that at least one of the Wrights should go to Europe, with their expenses covered, to discuss their invention with Berg and give him more confidence in it. Flint believed the Wrights themselves could ignite the kind of passion in Berg that he would need to persuade potential buyers.196

On May 15, 1907, a telegram came from the Flint office urging that one of the Wrights should start to Europe at once. Wilbur “grabbed a few things” and prepared to go to New York the next day, to sail on the Campania. As he planned to tarry abroad only a short time—only long enough to convince Berg—his baggage consisted of one suit case. He would stop first in England for a brief stay before going to Paris.

On May 15, 1907, a telegram arrived from the Flint office insisting that one of the Wright brothers should head to Europe immediately. Wilbur "grabbed a few things" and got ready to go to New York the next day to sail on the Campania. Since he intended to be abroad for only a short time—just long enough to convince Berg—his luggage consisted of one suitcase. He planned to stop in England for a quick visit before heading to Paris.

Wilbur was to land in Liverpool on a Saturday. Berg, eager to see one of the Wrights face to face and settle in his own mind if these inventors were really dependable, went to London to meet him.

Wilbur was scheduled to arrive in Liverpool on a Saturday. Berg, eager to see one of the Wright brothers in person and determine for himself if these inventors were truly reliable, went to London to meet him.

“I knew him the minute he stepped from the train,” said Berg long afterward. “To begin with, it is always easy to spot an American among Englishmen, and I saw no other American coming down the platform. But even if there had been other Americans I’m sure I would have known which one was Wilbur Wright. There was a modest self-assurance about him that tallied with his character as I had heard about it.”

“I recognized him the moment he got off the train,” Berg recounted later. “First off, it’s always easy to identify an American among the English, and I didn’t see any other Americans coming down the platform. But even if there had been other Americans, I’m sure I would have known which one was Wilbur Wright. There was a quiet confidence about him that matched the way I’d heard about his personality.”

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After the first greetings, Berg said: “Now let’s see about picking up the rest of your luggage.”

After the initial greetings, Berg said, “Now let’s sort out the rest of your luggage.”

But Wilbur smilingly explained that the one suit case was all he had brought.

But Wilbur smiled and explained that the only suitcase he had brought was the one.

On the way to the hotel, Wilbur decided that it might be advisable for him to buy a suit of evening clothes and they went at once to a tailor shop on the Strand.

On the way to the hotel, Wilbur thought it would be a good idea to buy a suit for the evening, so they headed straight to a tailor shop on the Strand.

It didn’t take Berg long to convince himself that Wilbur Wright was no slicker, but decidedly on the level, and that if he said his machine would fly, then it must be true.

It didn’t take Berg long to convince himself that Wilbur Wright was no fraud, but definitely genuine, and that if he said his machine would fly, then it had to be true.

A day after their first meeting, Berg and Wilbur were joined by F. R. Cordley, of the Flint firm, in Europe on a vacation trip, and the three went to Paris together. They “descended,” as the French say, at the Hotel Meurice, on the rue de Rivoli.

A day after their first meeting, Berg and Wilbur were joined by F. R. Cordley from the Flint firm, who was in Europe on vacation, and the three went to Paris together. They "checked in," as the French say, at the Hotel Meurice on the rue de Rivoli.

It was still broad daylight when they arrived and Berg almost immediately led Wilbur across the street into the Tuileries gardens. They strolled to the Place de la Concorde and looked up the length of the magnificent Avenue des Champs Elysées to the Arc de Triomphe. The horse chestnut trees were still in blossom, and Berg, a resident of Paris during most of his life, was feeling happy over the opportunity to show this stranger his first glimpse of the most beautiful city on earth at its loveliest season.

It was still bright out when they arrived, and Berg almost immediately took Wilbur across the street into the Tuileries gardens. They walked over to the Place de la Concorde and looked up the stunning Avenue des Champs Elysées towards the Arc de Triomphe. The horse chestnut trees were still blooming, and Berg, who had lived in Paris for most of his life, felt happy to show this newcomer his first look at the most beautiful city in the world during its loveliest season.

Before he had been long in Paris, Wilbur attended a balloon meet at St. Cloud, and a few days later made his first trip in a balloon.

Before he had been in Paris for long, Wilbur went to a balloon festival at St. Cloud, and a few days later, he took his first trip in a balloon.

A Paris Herald reporter, who talked with Wilbur at198 St. Cloud, was impressed by his reticence and made this statement: “Mr. Wright talked carefully, as if all was mapped out in advance. It was obvious that he feared to be caught in a trap concerning his remarkable machine and what he wants to do with it. At the end of each question his clean-shaven face relapsed into a broad, sphinx-like smile.”

A reporter from the Paris Herald, who spoke with Wilbur at198 St. Cloud, was struck by his quiet demeanor and said: “Mr. Wright spoke carefully, as if everything was planned out ahead of time. It was clear that he was worried about being trapped regarding his incredible machine and his intentions with it. After each question, his clean-shaven face would break into a wide, sphinx-like smile.”

It now seemed wise to try to form a company to buy European rights to the airplane, or to sell the rights to a private financier, rather than to deal with the Government, through politicians; and a wealthy man had become interested: M. Henri Deutsch de la Meurthe, an oil magnate, who had also been a patron of ballooning.

It now seemed smart to try to create a company to buy the European rights to the airplane, or to sell the rights to a private investor, instead of dealing with the Government through politicians; and a wealthy individual had shown interest: M. Henri Deutsch de la Meurthe, an oil tycoon, who had also supported ballooning.

When Wilbur Wright met Deutsch de la Meurthe, the latter, a cautious trader, said that before investing any money he wanted to make sure the French Government would be interested in buying airplanes.

When Wilbur Wright met Deutsch de la Meurthe, the latter, a careful businessman, said that before putting any money in, he wanted to be sure the French Government would be interested in purchasing airplanes.

Wilbur then decided that it would be both discourteous and imprudent not to have a talk with Letellier or Fordyce, with whom there had been previous negotiations, and let them know what was going on—particularly since Deutsch de la Meurthe was known to have close relations with Le Matin, a rival of Letellier’s newspaper, Le Journal. He got in touch with Fordyce, and told him a little of the current situation. Shortly afterward, Letellier invited Wilbur to lunch. Letellier seemed indignant that the Wrights had not resumed negotiations with him. Wilbur told him he could doubtless be included if a company should be formed. But that didn’t suit Letellier. He didn’t care to join a company organized by Deutsch de la Meurthe; if a company199 was formed he wanted to be the prime mover in it himself. He said nothing, however, about interfering with efforts being made to form a company—possibly because he thought they would not be successful.

Wilbur then figured it would be both rude and unwise not to talk to Letellier or Fordyce, with whom he had previously negotiated, and let them know what was happening—especially since Deutsch de la Meurthe was known to have strong ties with Le Matin, a competitor of Letellier’s newspaper, Le Journal. He reached out to Fordyce and shared a bit about the current situation. Soon after, Letellier invited Wilbur to lunch. Letellier seemed upset that the Wrights hadn't restarted negotiations with him. Wilbur told him he could probably be included if a company were formed. But that didn’t work for Letellier. He didn’t want to join a company started by Deutsch de la Meurthe; if a company was formed, he wanted to be the one leading it himself. However, he didn’t mention anything about interfering with the efforts to create a company—possibly because he thought those efforts wouldn’t succeed.

Deutsch de la Meurthe now went to call upon the Minister of Marine, with whom he was well acquainted, and was escorted by him to meet the Minister of War, General Picquart, a hero of the Dreyfus case.

Deutsch de la Meurthe now went to visit the Minister of Marine, with whom he was already familiar, and was escorted by him to meet the Minister of War, General Picquart, a hero of the Dreyfus case.

General Picquart was not familiar with what had previously been done regarding the possible purchase of a Wright machine, as the negotiations had been carried on during the regime of his predecessor. But he had Commandant Bonel bring the records to him and when he looked them over was impressed by the fact that the Wrights’ invention had been considered seriously. No less impressed was Deutsch de la Meurthe. General Picquart said he realized the importance of the Wright invention and was disposed to take favorable action toward buying planes, provided the Wrights would guarantee that their machine could fly at a height of 300 meters.

General Picquart wasn’t aware of what had been done before regarding the potential purchase of a Wright machine since the negotiations happened during his predecessor’s time. However, he had Commandant Bonel bring the records to him, and when he reviewed them, he was struck by how seriously the Wrights’ invention had been considered. Deutsch de la Meurthe was equally impressed. General Picquart mentioned that he understood the significance of the Wright invention and was willing to support the purchase of planes, as long as the Wrights could guarantee that their machine could fly at an altitude of 300 meters.

That was enough encouragement for Deutsch de la Meurthe. In fact, he became highly enthusiastic over the outlook. He had not before appreciated the seriousness of the previous negotiations. Now he began to talk about details of the articles of incorporation of a proposed company.

That was all the motivation Deutsch de la Meurthe needed. He became really excited about the possibilities. He hadn’t fully understood how serious the earlier negotiations were. Now, he started discussing the details of the articles of incorporation for the proposed company.

Commandant Bonel was elated over the news that his government might at last be buying Wright airplanes. His pride and prestige had been hurt by the failure of his recommendations to be accepted. Moreover, for patriotic200 reasons, he wanted the French Army to be the first to adopt what he regarded as an epoch-making new invention. Now that the outlook was once again more favorable, he was in a communicative mood when he chanced to meet Fordyce, with whom he had traveled to Dayton.

Commandant Bonel was thrilled to hear that his government might finally be purchasing Wright airplanes. His pride and standing had taken a hit when his recommendations were rejected. Additionally, he wanted the French Army to be the first to embrace what he saw as a groundbreaking new invention for patriotic reasons. Now that things were looking up again, he was feeling talkative when he unexpectedly ran into Fordyce, whom he had traveled to Dayton with.

Fordyce showed his surprise at what Bonel told him. He went at once to tell this news to his employer, M. Letellier. Now Letellier expressed great indignation. He had an agreement in writing, he said, that if the War Ministry bought any Wright airplanes the purchase should be made through Le Journal, and any departure from that plan he must construe as an unfriendly and illegal act. Immediately he went to the office of the Minister of War where with great politeness he showed to General Picquart a letter obtained from his predecessor.

Fordyce was surprised by what Bonel told him. He immediately went to share the news with his boss, M. Letellier. Letellier reacted with outrage. He claimed that he had a written agreement stating that if the War Ministry bought any Wright airplanes, the purchase had to go through Le Journal, and any deviation from this plan would be considered an unfriendly and illegal act. He promptly went to the office of the Minister of War, where he politely presented General Picquart with a letter he had received from his predecessor.

Since the option the Wrights had given to Fordyce had expired, the agreement between the War Ministry and Letellier was no longer in force. But General Picquart, if he understood that, after a hasty examination of the records, did not argue the point. Possibly he was too practical a politician to enter a controversy with an influential publisher. At any rate, he asked Deutsch de la Meurthe to withdraw from the negotiations.

Since the option the Wrights had given to Fordyce had expired, the agreement between the War Ministry and Letellier was no longer valid. But General Picquart, whether he understood that after a quick review of the records or not, didn’t dispute it. He might have been too shrewd a politician to get into a disagreement with a powerful publisher. Regardless, he asked Deutsch de la Meurthe to step back from the negotiations.

It was Deutsch de la Meurthe’s turn to be indignant. He believed at first that the Wrights had simply used him for a tool. But later, when he understood the facts and saw that the Wrights were not to blame for what had happened, he once more was friendly with them.

It was Deutsch de la Meurthe’s turn to be outraged. He initially thought that the Wrights had just used him as a means to an end. But later, when he grasped the facts and realized that the Wrights weren’t at fault for what had happened, he became friendly with them again.

The Wrights saw that their most promising opportunity for an immediate contract was through Letellier201 and Le Journal. Consequently, Fordyce, representing that newspaper, came back into the picture. Within a day or two after negotiations were thus resumed, Fordyce came to Berg in an apologetic mood, showing deep embarrassment. He said he had been asked to submit a proposal that it hardly seemed worth while to discuss at all; and yet he had no choice but to convey a message, as had been requested of him, by a man high in government circles. The deal might go through at once, said Fordyce, but there would have to be a little re-wording of the contract. The Wrights must not ask 1,000,000 francs but 1,250,000 francs. Then they would receive their million francs.

The Wrights recognized that their best chance for an immediate contract was through Letellier201 and Le Journal. As a result, Fordyce, who represented that newspaper, re-entered the scene. Within a day or two after negotiations resumed, Fordyce approached Berg with an apologetic demeanor, clearly embarrassed. He mentioned that he had been instructed to submit a proposal that didn’t seem worth discussing at all; however, he had no choice but to relay a message from a high-ranking government official as requested. Fordyce said the deal could go through quickly, but there would need to be some adjustments to the contract wording. The Wrights should not ask for 1,000,000 francs but for 1,250,000 francs instead. That way, they would receive their million francs.

Berg knew well enough what would happen when he told this to Wilbur.

Berg knew exactly what would happen when he told this to Wilbur.

There would be no objection to having the contract call for more money than the Wrights were to receive, said Wilbur calmly, but the contract must give the name of the man who would receive that additional sum.

There wouldn't be any issue with the contract specifying more money than what the Wrights would get, Wilbur said calmly, but the contract has to state the name of the person who would receive that extra amount.

Berg went to the office of the man who had communicated, by way of Fordyce, the astounding suggestion. He hoped there had been some misunderstanding. But to Berg’s astonishment and disgust, the man said with shocking candor that he would indeed expect 250,000 francs ($50,000) as his reward for putting through the deal.

Berg went to the office of the man who had relayed, through Fordyce, the shocking suggestion. He hoped there had been some misunderstanding. But to Berg’s surprise and disgust, the man said with unexpected honesty that he would actually expect 250,000 francs ($50,000) as his fee for completing the deal.

Before indignantly walking out of the man’s office, Berg told him the Wrights would never be a party to such financial irregularity and that the negotiations with the Minister of War would have to be carried on without the co-operation of anyone in the Government who202 expected to be paid for his efforts. (After the first World War that same man was tried for treason.)

Before angrily leaving the man's office, Berg told him that the Wrights would never be involved in such financial wrongdoing and that the negotiations with the Minister of War would have to continue without the help of anyone in the Government who expected to be paid for their efforts. (After World War I, that same man was tried for treason.)

Meanwhile, Wilbur had cabled to Orville to join him in Paris. And with the prospect that it might be necessary to make a demonstration of what the Wright machine could do, a plane was crated and shipped from Dayton to France.

Meanwhile, Wilbur had sent a cable to Orville to come join him in Paris. With the possibility of needing to showcase what the Wright machine could do, a plane was packed up and shipped from Dayton to France.

Orville arrived in Paris around the first of August, and the Wright’s chief mechanic, Charlie Taylor, came about a week later.

Orville got to Paris around the beginning of August, and the Wright's main mechanic, Charlie Taylor, showed up about a week later.

While crossing the Atlantic, Orville had a talk with another passenger that illustrates his possession of a freakish kind of memory. An Englishman had been introduced to him and, after a few moments of conversation, Orville asked if they had not met before. No, the Englishman said, they had not. He had no recollection of any previous meeting, and he was sure if there had been one he would remember it. The man’s face was not familiar, but there was something about his voice and gestures that somehow stirred in Orville old memories. Finally, Orville inquired:

While crossing the Atlantic, Orville had a conversation with another passenger that showcases his unusual memory. An Englishman was introduced to him, and after a brief chat, Orville asked if they had met before. The Englishman replied that they had not. He didn’t remember any previous encounter, and he was certain that if there had been one, he would recall it. The man’s face didn’t look familiar, but something about his voice and gestures triggered some old memories in Orville. Eventually, Orville asked:

“Were you by any chance at the World’s Fair in Chicago back in 1893?”

“Were you at the World’s Fair in Chicago in 1893 by any chance?”

The Englishman nodded.

The Englishman nodded.

“And,” asked Orville, “did you ever have occasion to explain to a bystander some kind of device at one of the exhibits?”

“And,” asked Orville, “have you ever had to explain some kind of device to a bystander at one of the exhibits?”

Yes, that also might have happened.

Yes, that could have happened too.

“There,” said Orville, much relieved that his memory had not played him tricks, “must have been where I saw you. I felt sure I couldn’t be mistaken about your voice.”

“There,” Orville said, feeling much relieved that his memory hadn’t let him down, “that must be where I saw you. I was sure I couldn't be wrong about your voice.”

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After Orville had joined Wilbur at the Hotel Meurice, the brothers did not find their business affairs too pressing to do a lot of sight-seeing. Neither one spoke French, but Orville had acquired a fair reading knowledge of it. Oddly enough, Wilbur, who had learned Greek and Latin easily, made no effort to learn French. He jokingly said it was a convenience not to know it, as it saved him from a lot of talking.

After Orville met up with Wilbur at the Hotel Meurice, the brothers didn't feel their business matters were urgent enough to stop them from doing some sightseeing. Neither of them spoke French, but Orville had picked up a decent reading knowledge of it. Interestingly, Wilbur, who had picked up Greek and Latin with ease, didn't bother to learn French. He joked that it was actually a benefit not to know it since it spared him from having to talk too much.

As they went about their sight-seeing, Wilbur, always a reader of history, was especially fascinated by all places of historic interest. Orville found himself spending much time each day in the Louvre. Those days gave him an appreciation of good paintings that he never lost.

As they explored the sights, Wilbur, who was always interested in history, was particularly captivated by all the historic sites. Orville, on the other hand, spent a lot of time each day in the Louvre. Those days helped him develop a lasting appreciation for great paintings.

Negotiations with the French Government dragged on. For weeks the Wrights were kept in uncertainty. They never saw any of the people they were dealing with. Their only contact with anyone at the War Ministry was through Fordyce, and they had no way of knowing, except from what he told them, whether any progress was being made.

Negotiations with the French government dragged on. For weeks, the Wrights were left in uncertainty. They never met any of the people they were dealing with. Their only contact with anyone at the War Ministry was through Fordyce, and they had no way of knowing, other than what he told them, whether any progress was being made.

Nothing came of the long negotiations. The Wrights were not alone in being disappointed. Commandant Bonel, not long afterward, perhaps as a consequence of the failure of his recommendations to be accepted, resigned from the Army.

Nothing came of the lengthy negotiations. The Wrights weren't the only ones who felt let down. Commandant Bonel, not too long after, maybe as a result of his recommendations not being accepted, quit the Army.

Late in the summer of 1907, the Wrights left Paris. Orville went first to London, at the suggestion of Flint & Co. to have a talk with the receiver of the Barnum & Bailey circus and the Buffalo Bill Wild West Show, then in bankruptcy. The receiver wondered if the204 Wright plane could be flown within an enclosure where an admission fee could be charged.

Late in the summer of 1907, the Wright brothers left Paris. Orville went first to London, following a suggestion from Flint & Co. to speak with the receiver of the Barnum & Bailey circus and the Buffalo Bill Wild West Show, which were both in bankruptcy at the time. The receiver was curious if the Wright plane could be flown in a confined area where people would need to pay to get in.

Wilbur Wright had set out with Berg for St. Petersburg. They changed their minds about going to Russia, however, and, instead, stopped at Berlin where Orville shortly afterward joined them.

Wilbur Wright had left with Berg for St. Petersburg. They decided against going to Russia, though, and instead, stopped in Berlin, where Orville soon joined them.

As the train on which Wilbur and Berg traveled was passing through Belgium, Wilbur noticed a sign indicating that they were in the little town of Jemappes. Then he recalled that a great battle took place there back in 1792. He began to discuss the battle with an exact knowledge of details that astounded Berg. Wilbur had read about it in his youth. Over and over again, Berg and others who dealt with Wilbur Wright, were similarly impressed not only by the range of his reading but by the fact that no knowledge he had once acquired ever seemed to grow dim.

As the train that Wilbur and Berg were on passed through Belgium, Wilbur saw a sign showing they were in the small town of Jemappes. He then remembered that a significant battle occurred there back in 1792. He started talking about the battle with such detailed knowledge that it surprised Berg. Wilbur had read about it when he was younger. Time and again, Berg and others who interacted with Wilbur Wright were similarly impressed not just by the breadth of his reading but also by the fact that any knowledge he had gained never seemed to fade.

In Berlin, the brothers were able to gain direct contact with top flight men—with the minister of the Kaiser’s war department,8 and also with the minister of the department of transportation. These German officials were highly intelligent and not slow about recognizing the tremendous importance of the Wright machine if it would perform as the brothers said it could. The205 Wrights had proposed a contract in which they would agree to furnish a machine capable of carrying, at a speed of forty miles an hour, two men and a supply of fuel for a flight of 125 miles, and to make a demonstration flight of one hour fulfilling every requirement of the contract before one pfennig should be paid to them. The German officials could not deny the fairness of this offer, and could see no reason why the Wrights should have made it unless they could carry it out. Besides, they were not altogether unacquainted with the earlier work of the Wright brothers, accounts of whose glider and power flights had been appearing for five or six years in German technical publications. But in spite of all this the officials were in a quandary. They could not bring themselves to believe that what the Wrights now offered could be possible. They were afraid to sign their names to a contract that generally would be considered as foolish as a contract for a perpetual motion machine. They might become the laughingstock of the world.

In Berlin, the brothers managed to make direct connections with key people, including the minister of the Kaiser’s war department, 8, and the minister of transportation. These German officials were very smart and quickly recognized how crucial the Wright machine could be if it worked as the brothers claimed. The Wrights proposed a contract where they would provide a machine that could carry two people and enough fuel for a 125-mile flight at a speed of forty miles an hour. They also promised to make a demonstration flight lasting an hour that would meet all the contract requirements before they received a single pfennig. The German officials could not deny the fairness of this offer and saw no reason why the Wrights would make it unless they could fulfill it. Additionally, they were somewhat familiar with the earlier work of the Wright brothers, as reports about their glider and powered flights had been appearing in German technical publications for about five or six years. However, despite all this, the officials were unsure. They found it hard to believe that what the Wrights were offering could actually be possible. They were hesitant to sign a contract that would generally be seen as ridiculous, like a contract for a perpetual motion machine. They feared becoming the laughingstock of the world.

On the other hand, these officials did not want to let an invention of such potentialities, if it really existed, slip through their fingers. They therefore gave, instead of a signed contract, their solemn verbal promise that if the Wrights would make a flight before them, such as had been offered in the proposed written contract, they would buy planes on the terms the Wrights had offered.9

On the other hand, these officials didn’t want to let an invention with so much potential, if it truly existed, slip away from them. So, instead of a signed contract, they gave their serious verbal promise that if the Wrights made a flight in front of them, like what was proposed in the written contract, they would buy planes under the terms the Wrights had suggested.9

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The Wrights felt that these officials, being at the head of important departments, could be relied upon, and they were willing to take their verbal guarantee to buy planes upon the successful demonstration of the machine. When they left Germany, they fully expected to return the next March to make such a demonstration. (They could not foresee that they would have too many other engagements in definite contracts elsewhere before another four months had passed.)

The Wrights believed that these officials, being in charge of significant departments, could be trusted, and they were prepared to accept their verbal assurance to purchase planes after a successful demonstration of the machine. When they left Germany, they fully anticipated returning the following March to conduct that demonstration. (They couldn't predict that they would have too many other commitments with solid contracts elsewhere before another four months had gone by.)

Wilbur Wright returned from Europe in November of 1907. But Orville remained a little longer to attend to having a number of engines built in Paris by the firm of Barriquand & Marre. The Wrights wanted to have in reserve duplicates of their American engine, at that time in customs, at Le Havre, for use the next year. Barriquand & Marre were manufacturers of precision instruments and had built light motors. They doubted if the Wright motor gave as much power as was claimed for it, but they felt sure that if it did, the copies they made of it—on account of more careful workmanship—would give considerably more power than the original. But as later events showed, they gave less. At that time it was not known that when one motor is made as an exact copy, to the thousandth of an inch, of another motor, of supposedly the same steels and other metals, but from different foundries and mills, months of experiment are required before the new motor can be made to work properly.

Wilbur Wright came back from Europe in November of 1907. Orville stayed a bit longer to have several engines built in Paris by the company Barriquand & Marre. The Wrights aimed to have backup copies of their American engine, which was then stuck in customs at Le Havre, ready for use the following year. Barriquand & Marre were manufacturers of precision instruments and had experience building lightweight motors. They were skeptical that the Wright motor produced as much power as claimed, but they were confident that if it did, the copies they made would produce significantly more power due to their meticulous workmanship. However, as later events revealed, the copies ended up producing less power. At that time, it wasn’t understood that creating an exact replica of a motor to the thousandth of an inch from another motor, supposedly made of the same types of steel and metals but sourced from different foundries and mills, required months of experimentation to ensure the new motor functioned correctly.


While in Paris, in 1907, the Wrights naturally had visits with Frank S. Lahm, who had arranged with his brother-in-law, Henry Weaver, of Mansfield, to investigate the reports from America of human flight. Lahm invited the inventors to his home and there they met his son, Lieutenant Frank P. Lahm,10 who was recuperating from an attack of typhoid fever. The younger Lahm, a former instructor at West Point, had recently spent a year at the French Cavalry School at Saumur. He, as well as his father, was much interested in aeronautics. The previous October he had won the James Gordon Bennett balloon race by starting at Paris and landing in England. Probably the only American Army officer who recognized that the airplane should now be taken seriously, he was delighted to meet the Wright brothers, with whom he now began a lasting friendship. After he had learned a little about their negotiations in France, he began to urge the United States War Department to take more interest in the airplane.

While in Paris in 1907, the Wrights naturally visited Frank S. Lahm, who had arranged with his brother-in-law, Henry Weaver, from Mansfield, to look into the reports of human flight coming from America. Lahm invited the inventors to his home, where they met his son, Lieutenant Frank P. Lahm, who was recovering from a bout of typhoid fever. The younger Lahm, a former instructor at West Point, had recently spent a year at the French Cavalry School in Saumur. He, along with his father, was very interested in aeronautics. The previous October, he had won the James Gordon Bennett balloon race by taking off from Paris and landing in England. Likely the only American Army officer who realized that the airplane should be taken seriously, he was thrilled to meet the Wright brothers, with whom he started a lasting friendship. After learning a bit about their dealings in France, he began encouraging the United States War Department to show more interest in the airplane.

It so happened that, in September, 1907, only a few weeks after this meeting, Lieutenant Lahm was transferred by the War Department from the Cavalry to the Signal Corps, to be stationed at Washington. His first208 assignment was to make a tour of Europe, before returning to Washington, and report on the situation regarding dirigible aircraft in several countries. Soon afterward he returned to Washington. The presence of a man in the War Department there who felt enthusiasm for the airplane’s possibilities, and who had strong faith in the Wrights, may have had its effect on his associates. At any rate, there was now in the War Department a man who believed in the Wrights.

It happened that, in September 1907, just a few weeks after this meeting, Lieutenant Lahm was moved by the War Department from the Cavalry to the Signal Corps, where he was stationed in Washington. His first assignment was to travel around Europe before heading back to Washington and report on the state of dirigible aircraft in several countries. Shortly after, he returned to Washington. Having someone in the War Department who was enthusiastic about the airplane's potential and had strong faith in the Wright brothers may have influenced his colleagues. At any rate, there was now someone in the War Department who believed in the Wrights.

When Wilbur stopped in Washington shortly before Thanksgiving, 1907, en route to Dayton, on his return from France, he had a talk with General Crozier and Major Fuller of the Ordnance Department, and with General Allen, head of the Signal Corps—the organization that would conduct tests of the airplane and use it if the Ordnance Board sanctioned and provided funds for its purchase. At this meeting Wilbur stated the price the Wrights would accept ($25,000) and the performance of the machine that they were willing to guarantee. These terms, agreed upon between the brothers before Wilbur left France, were stiff enough, it was thought, to bar any competition. The Ordnance Board was to have a meeting on December 5, and Wilbur was invited to appear before it. He did so; but the meeting did not inspire him with confidence that an early contract could be obtained at the price of $25,000. The Wrights were not willing to accept less, because they thought they had better prospects abroad. However, the Signal Corps soon began drawing up specifications, and, on December 23, advertised for bids.

When Wilbur stopped in Washington just before Thanksgiving in 1907, on his way to Dayton after returning from France, he talked with General Crozier and Major Fuller from the Ordnance Department, along with General Allen, who led the Signal Corps—the group that would test the airplane and use it if the Ordnance Board approved and funded its purchase. During this meeting, Wilbur shared the price the Wrights would agree to ($25,000) and the performance guarantees they were willing to make. These terms, which the brothers had agreed on before Wilbur left France, were considered firm enough to eliminate any competition. The Ordnance Board was scheduled to meet on December 5, and Wilbur was invited to present. He did attend, but the meeting didn’t give him confidence that they could secure a contract for $25,000 soon. The Wrights weren’t willing to go lower because they believed they had better opportunities abroad. However, the Signal Corps quickly started creating specifications and, on December 23, put out an advertisement for bids.

Inasmuch as the Wright machine was the only one in209 existence that could meet these requirements, and the price was understood in advance, advertising for bids may have been superfluous; but it was considered necessary to meet demands of red tape. Among specifications set forth in the advertisement for bids were these: the plane must be tested in the presence of Army officers; it must be able to carry for one hour a passenger besides the pilot, the two weighing not less than 350 lbs.; it must show an average speed of forty miles an hour, in a ten-mile test, and carry enough fuel for 125 miles. Also, the machine must have “demountability”; that is, it should be built in such a way that it could be taken apart, and later reassembled, without too much difficulty, when necessary to transport it on an army truck from one place to another.

Since the Wright machine was the only one available that could meet these requirements, and the price was already agreed upon, advertising for bids might have been unnecessary; however, it was deemed essential to comply with bureaucratic procedures. Among the specifications outlined in the advertisement for bids were the following: the plane must be tested in front of Army officers; it must be able to carry a passenger in addition to the pilot for one hour, with the two weighing at least 350 lbs.; it must demonstrate an average speed of forty miles per hour over a ten-mile test, and have enough fuel for 125 miles. Additionally, the machine must have “demountability”; meaning, it should be designed so that it can be taken apart and reassembled easily when needed to transport it on an army truck from one location to another.

Almost from the day the advertisements for bids appeared, the War Department was subject to editorial attacks—not because it had been so slow about interesting itself in the airplane, but because it had done so at all!

Almost from the day the ads for bids showed up, the War Department faced editorial criticism—not because it had taken so long to get interested in airplanes, but because it had gotten interested at all!

The New York Globe said:

The New York Times said:

One might be inclined to assume from the following announcement, “the United States Army is asking bids for a military airship,” that the era of practical human flight had arrived, or at least that the government had seriously taken up the problem of developing this means of travel. A very brief examination of the conditions imposed and the reward offered for successful bidders suffices, however, to prove this assumption a delusion.

One might think from the following announcement, “the United States Army is requesting bids for a military airship,” that the era of practical human flight has arrived, or at least that the government is seriously tackling the development of this mode of transportation. However, a quick look at the conditions laid out and the reward offered for successful bidders is enough to show that this assumption is misleading.

A machine such as is described in the Signal Corps’ specifications would record the solution of all the difficulties in210 the way of the heavier-than-air airship, and, in fact, finally give mankind almost as complete control of the air as it now has of the land and the water. It would be worth to the world almost any number of millions of dollars, would certainly revolutionize warfare and possibly the transportation of passengers; would open to easy access regions hitherto inaccessible except to the most daring pioneers and would, in short, be probably the most epoch-making invention in the history of civilization.

A machine like the one described in the Signal Corps’ specifications would solve all the problems facing heavier-than-air aircraft and, in fact, would eventually give humanity nearly as much control over the skies as it currently has over land and water. It would be worth countless millions of dollars to the world, would definitely change the nature of warfare, and could also transform passenger transportation; it would provide easy access to areas that were previously unreachable except by the most adventurous pioneers and would, in short, likely be the most groundbreaking invention in the history of civilization.

Nothing in any way approaching such a machine has ever been constructed (the Wright brothers’ claims still await public confirmation), and the man who has achieved such a success would have, or at least should have, no need of competing in a contest where the successful bidder might be given his trial because his offer was a few hundred or thousand dollars lower than that of someone else. If there is any possibility that such an airship is within measurable distance of perfection any government could well afford to provide its inventor with unlimited resources and promise him a prize, in case of success, running into the millions.

Nothing even remotely like such a machine has ever been built (the Wright brothers' claims still await public verification), and the person who has achieved such a success would have, or at least should have, no reason to compete in a contest where the winner might be chosen simply because their bid was a few hundred or thousand dollars lower than someone else's. If there’s any chance that such an airship is close to perfection, any government could easily afford to provide its inventor with unlimited resources and offer a prize, in case of success, amounting to millions.

The American Magazine of Aeronautics (later called Aeronautics) devoted its opening article in the issue of January, 1908, to pointing out the absurdity of what the War Department was trying to do.

The American Magazine of Aeronautics (later called Aeronautics) dedicated its first article in the January 1908 issue to highlighting the ridiculousness of what the War Department was attempting to accomplish.

There is not a known flying-machine in the world which could fulfill these specifications at the present moment, [declared the editorial].... Had an inventor such a machine as required would he not be in a position to ask almost any reasonable sum from the government for its use? Would not the government, instead of the inventor, be a bidder?... Perhaps the Signal Corps has been too much influenced by the “hot air” of theorizers, in which aeronautics unfortunately abounds, who have fathomed the entire211 problem without ever accomplishing anything; talk is their stock in trade and models or machines are beneath them because beyond their impractical nature.... Why is not the experience with Professor Langley a good guide?... We doubt very much if the government receives any bids at all possible to be accepted.

There isn't a known flying machine in the world right now that meets these specifications, [declared the editorial].... If an inventor had such a machine, wouldn't they be able to ask the government for almost any reasonable amount for its use? Wouldn't the government, instead of the inventor, be the one bidding?... Maybe the Signal Corps has been too swayed by the “hot air” of theorists, which unfortunately fills the field of aeronautics, who think they’ve figured out the whole problem without ever getting anything done; talk is their forte and models or machines are beneath them because of their impractical nature.... Why isn't the experience with Professor Langley a good guide?... We seriously doubt the government will receive any bids that can actually be accepted.

To the surprise of nearly everyone, forty-one proposals were received. Most of the bidders were the same kind of cranks the Ordnance Board had at first supposed the Wrights to be; and their bids were rejected when they failed to put up a required ten per cent of the proposed price of the plane, as a sign of good faith. Two other bidders besides the Wrights did make a ten per cent deposit. One of these, J. F. Scott, of Chicago, had made a bid of $1,000, and promised delivery of a plane in 185 days. Another was A. M. Herring. His price was $20,000; delivery to be in 180 days. The Wrights’ bid was $25,000, with delivery promised in 200 days.

To everyone’s surprise, forty-one proposals were received. Most of the bidders were the same kind of oddballs that the Ordnance Board initially thought the Wrights were, and their bids were rejected when they didn’t put up the required ten percent of the proposed price of the plane as a sign of good faith. Two other bidders besides the Wrights did make the ten percent deposit. One of these was J. F. Scott from Chicago, who bid $1,000 and promised to deliver a plane in 185 days. The other was A. M. Herring, whose price was $20,000, with delivery in 180 days. The Wrights’ bid was $25,000, with delivery promised in 200 days.

Receipt of these unexpected bids created a problem. Everyone assumed that none of the bidders except the Wrights had anything practical to offer; and yet the government would be expected to accept the lowest bid and let the winner show what he could do. No matter how dismally he failed to meet requirements, dealing with him would take up time and cause delays.

Receipt of these unexpected bids created a problem. Everyone assumed that none of the bidders except the Wrights had anything practical to offer; and yet the government would be expected to accept the lowest bid and let the winner show what he could do. No matter how poorly he failed to meet requirements, dealing with him would take up time and cause delays.

General Allen, of the Signal Corps, went to Secretary of War Taft to inquire how the War Department might get around the difficulty. Taft said they could accept all legal bids and as only the Wrights could meet the requirements, the others would be eliminated. The only difficulty was that even if no money would ever be paid212 to the other bidders, yet it would be illegal to accept the bids unless enough money to pay for whatever was ordered was known to be available. However, Taft suggested a way around that. He knew that the President had at his disposal an emergency fund to do with as he saw fit. If the President wished to he could guarantee that all bidders would be paid if they met the tests.

General Allen from the Signal Corps went to Secretary of War Taft to ask how the War Department could solve the issue. Taft said they could accept all legitimate bids, and since only the Wright brothers could fulfill the requirements, the others would be dropped. The only problem was that, even if no money would ever be paid to the other bidders, it would still be illegal to accept their bids unless there was enough money known to be available to cover whatever was ordered. However, Taft proposed a solution. He knew that the President had an emergency fund he could use as he pleased. If the President wanted to, he could ensure that all bidders would be paid if they passed the tests.212

General Allen, accompanied by Captain Charles De Forest Chandler and Lieutenant F. P. Lahm, Signal Corps officers, called upon President Roosevelt who promptly agreed with Taft’s suggestion. He told them to accept all bids and that he would place funds at their disposal to meet legal technicalities. The Signal Corps then agreed to buy planes from all three bidders if they met the necessary requirements.

General Allen, along with Captain Charles De Forest Chandler and Lieutenant F. P. Lahm from the Signal Corps, visited President Roosevelt, who quickly agreed with Taft’s suggestion. He instructed them to accept all bids and assured them that he would provide the funds necessary to handle any legal issues. The Signal Corps then decided to purchase planes from all three bidders as long as they met the required standards.

One of those bidders soon eliminated himself by asking the Government to return his ten per cent deposit. Though the government was not obliged to return the deposit, it nevertheless did so. Herring, the only remaining legal bidder besides the Wrights, hung on a while longer.

One of those bidders quickly disqualified himself by asking the government to refund his ten percent deposit. Although the government wasn't required to return the deposit, it went ahead and did anyway. Herring, the only other legal bidder left besides the Wrights, held on a little while longer.

What A. M. Herring had in mind was simply to obtain the contract in consequence of his lower price and then try to sublet it to the Wrights. He even had the effrontery to go to Dayton to see the Wrights and make such a proposal. Naturally, they were not interested.

What A. M. Herring wanted was just to get the contract because of his lower price and then attempt to subcontract it to the Wrights. He even had the nerve to travel to Dayton to meet with the Wrights and make that proposal. Unsurprisingly, they weren't interested.

THE WRIGHT PLANE IN FRANCE. The plane is being hauled from one field to another, near Le Mans, France, in August, 1908.

The Wrights’ bid was accepted on February 8, 1908.

The Wrights' offer was accepted on February 8, 1908.

As it happened, this was not the only important contract the Wrights entered into at about that time. On March 3, three weeks after the Signal Corps had accepted213 their bid, they closed a contract with Lazare Weiller, a wealthy Frenchman, to form a syndicate to buy the rights to manufacture, sell, or license the use of the Wright plane in France. Upon completion of certain tests of the machine, the Wrights were to receive a substantial amount in cash, a block of stock, and provision for royalties. The French company would be known as La Compagnie Générale de Navigation Aérienne. A member of the syndicate was M. Deutsch de la Meurthe who had taken steps toward forming a French company some time previously.

As it turned out, this wasn't the only significant contract the Wrights made around that time. On March 3, three weeks after the Signal Corps accepted213 their bid, they signed a contract with Lazare Weiller, a wealthy Frenchman, to create a syndicate to purchase the rights to manufacture, sell, or license the Wright plane in France. After completing certain tests of the aircraft, the Wrights were to receive a substantial amount of cash, a block of stock, and provisions for royalties. The French company would be called La Compagnie Générale de Navigation Aérienne. A member of the syndicate was M. Deutsch de la Meurthe, who had previously taken steps toward forming a French company.

THE WRIGHTS AND WILBUR’S FRENCH PUPILS. Left to right, Captain Lucas-Girardville, Comte Charles de Lambert, Orville Wright, Wilbur Wright, and Paul Tissandier, at Pau, France, early in 1909.

One provision of the U. S. War Department contract was that the Government could deduct ten per cent of the purchase price for each mile per hour that the machine fell short of the forty-mile goal. That is, if it went only thirty-nine miles an hour, the Wrights would be docked ten per cent; if only thirty-eight miles, another ten per cent, and so on. If the machine did not do at least thirty-six miles an hour, then the Government didn’t have to accept it at all. On the other hand, the Wrights would receive a ten per cent bonus for each mile per hour they attained above forty.

One requirement of the U.S. War Department contract was that the Government could deduct ten percent from the purchase price for every mile per hour the machine fell short of the forty-mile goal. So, if it only went thirty-nine miles an hour, the Wrights would lose ten percent; if it only reached thirty-eight miles, they would lose another ten percent, and so on. If the machine didn’t reach at least thirty-six miles an hour, then the Government didn’t have to accept it at all. On the flip side, the Wrights would get a ten percent bonus for every mile per hour they exceeded forty.

It was the intention of the Signal Corps, and the Wrights so understood it, that these reduced or additional payments would be for either a mile or a fraction of a mile. But a Government legal department made a surprising interpretation of that part of the contract. If at the time of the tests the plane went 40-99/100 miles, the Wrights would not be paid for more than 40; but if the plane fell short of 40 miles an hour by only214 1/100 of a mile, or even less, then they would be docked for a full mile.

It was the intention of the Signal Corps, and the Wrights understood this, that these reduced or additional payments would be for either a mile or a fraction of a mile. However, a government legal department interpreted that part of the contract in a surprising way. If at the time of the tests the plane went 40-99/100 miles, the Wrights would not be paid for more than 40; but if the plane fell short of 40 miles an hour by just 1/100 of a mile, or even less, then they would be penalized for a full mile.

(Orville did not learn of that astounding example of the legal mind at work until after he arrived at Washington to prepare for the tests and it was then too late to build a faster plane. But in the final tests the next year, he had a plane that he knew would give the buyer no opportunity to take advantage of what he regarded as a one-sided interpretation of the contract.)

(Orville didn't find out about that amazing display of the legal mind at work until after he got to Washington to prepare for the tests, and by then it was too late to create a faster plane. However, in the final tests the following year, he had a plane that he was confident would not give the buyer any chance to exploit what he thought was a one-sided interpretation of the contract.)

Though the Wrights had done no flying since October, 1905, they had done much work on improving both plane and engine. Their newest engine, capable of producing about thirty-five horsepower continuously, was also so much better as to reliability that now long flights could be made without danger of failure of the motive power.

Though the Wrights hadn't flown since October 1905, they had worked hard on enhancing both the plane and the engine. Their latest engine, which could generate about thirty-five horsepower continuously, was also significantly more reliable, allowing for long flights to be made without the risk of the engine failing.

During all their experiments at the Huffman pasture they had continued to ride “belly-buster,” as a boy usually does when coasting on a sled. Lying flat in that way and controlling the mechanism partly by swinging the hips from one side to the other was good enough for the experimental stages of aviation; but the Wrights knew that if a plane was to have practical use the pilot must be able to take an ordinary sitting position and do the controlling and guiding with his hands and feet as in an automobile. It was not all fun lying flat for an hour at a time with head raised to be on the lookout for possible obstacles. “I used to think,” said Orville in later years, “the back of my neck would break if I endured one more turn around the field.”

During all their experiments at the Huffman pasture, they kept riding "belly-buster," just like a kid usually does when going down a sledding hill. Lying flat like that and controlling the mechanism by shifting their hips from side to side was fine for the early stages of aviation. But the Wright brothers knew that for a plane to be practical, the pilot needed to be able to sit normally and control it with their hands and feet, like driving a car. It wasn't exactly enjoyable lying flat for an hour at a time, always craning their necks to watch for possible obstacles. "I used to think," Orville recalled years later, "that the back of my neck would snap if I had to take one more turn around the field."

The brothers therefore had adopted a different arrangement215 of the control levers, for use in a sitting position, and a seat for a passenger. Moreover, the machine could be steered from either seat and thus was suitable for training other pilots if occasion should arise. The plane sent to France for possible trials in 1907 was thus equipped. They revamped the machine they had used at the Huffman pasture in 1905, and installed their later improvements. It now had an engine with vertical instead of horizontal cylinders. With this machine they would go to Kitty Hawk and gain needed practice in handling their new arrangement of the control levers.

The brothers had therefore set up a different arrangement of the control levers for use while sitting, along with a seat for a passenger. Additionally, the plane could be steered from either seat, making it suitable for training other pilots if the opportunity arose. The plane sent to France for potential trials in 1907 was outfitted this way. They modified the machine they had used at the Huffman pasture in 1905 and incorporated their later improvements. It now featured an engine with vertical rather than horizontal cylinders. With this machine, they planned to go to Kitty Hawk and gain practice in managing their new control lever arrangement.

The United States Government tests would be made at Fort Myer, Virginia, near Washington. Delivery of the machine had to be made by August 28, and the tests themselves were to begin shortly afterward, in September. But at about that same time, one of the brothers would make a demonstration in France. They had not yet decided which of them would fly at Fort Myer and which should go to France. But both had to be well prepared and there was no time to lose. They must be established at Kitty Hawk as soon as possible.

The U.S. government tests were set to take place at Fort Myer, Virginia, close to Washington. The machine needed to be delivered by August 28, with the tests scheduled to start shortly after, in September. However, around the same time, one of the brothers was going to do a demonstration in France. They hadn't decided yet who would fly at Fort Myer and who would travel to France. But both needed to be well-prepared, and there was no time to waste. They had to be at Kitty Hawk as soon as possible.

Wilbur Wright set out for Kitty Hawk ahead of Orville and arrived there April 9, 1908. He was joined within a week by a mechanic from Dayton, Charles W. Furnas. First of all, it was necessary to do much rebuilding of the camp. The buildings had not only suffered from storms, but had been stripped of much timber by persons who supposed the Wrights had permanently abandoned them. The plane was shipped in crates from Dayton April 11, but had to be left for some time in a freight depot at Elizabeth City until the new shed was216 completed at Kitty Hawk. Both Orville and the plane reached there on April 25.

Wilbur Wright traveled to Kitty Hawk ahead of Orville and arrived on April 9, 1908. A week later, he was joined by a mechanic from Dayton, Charles W. Furnas. First, they had to rebuild the camp. The buildings had not only been damaged by storms but had also lost much timber taken by people who thought the Wrights had permanently left. The plane was shipped in crates from Dayton on April 11 but had to be stored for a while in a freight depot in Elizabeth City until the new shed was216 completed at Kitty Hawk. Both Orville and the plane arrived there on April 25.

It might have been expected that with at least two governments now showing interest in the Wright plane, each of the brothers would have been besieged en route by reporters and others. But the general public, including reporters, still seemed disinclined to believe in human flight. At about the same time that the Wrights were preparing to go to Kitty Hawk, a publisher brought out a new novel by H. G. Wells, Tono-Bungay, in which the leading character built a gliding machine “along the lines of the Wright brothers’ airplane,” and finally a flying-machine. That stirred one or two American book reviewers to chide the author for putting such fantastic material into a tale otherwise plausible.

It might have been expected that with at least two governments now interested in the Wright plane, the brothers would have been overwhelmed by reporters and others on their journey. However, the general public, including reporters, still seemed reluctant to accept the idea of human flight. Around the same time the Wrights were getting ready to go to Kitty Hawk, a publisher released a new novel by H. G. Wells, Tono-Bungay, in which the main character built a glider “inspired by the Wright brothers’ airplane,” and eventually a flying machine. This prompted a few American book reviewers to criticize the author for including such fantastical elements in an otherwise believable story.

Because of the persistence of that kind of incredulity, the Wrights did not expect many sightseers, least of all newspapermen, at Kitty Hawk during their preparations for government tests. Therefore they did not think it necessary to keep their plans secret. Though they weren’t seeking reporters, neither were they trying to avoid them. They simply went ahead without giving any thought to newspapermen one way or another. But the Wrights were about to be discovered.

Because of the ongoing skepticism, the Wrights didn't expect many visitors, especially reporters, at Kitty Hawk while they were getting ready for government tests. So, they didn't feel the need to keep their plans a secret. Although they weren't looking for media attention, they also weren't trying to hide from it. They just moved forward without considering reporters at all. But the Wrights were about to be found out.

Not until May 6 did either of the brothers make a flight. But the newspapers, instead of ignoring what the Wrights had done, now began to report what they had not done. On May 1, the Virginian-Pilot, of Norfolk (the same paper that had reported, not too accurately, the first flight of an airplane), carried a wild tale that one of the Wright brothers had flown, the day before,217 ten miles out over the ocean! Practically the same story was widely published the next day. Katharine Wright on May 2 telegraphed her brothers that “the newspapers” had reported a flight. As the Wrights later learned, the B. Z. Mittag, in Berlin, carried a dispatch from Paris: “From America comes the news that the Wright brothers for the first time have made in public a controlled flight. The flight was made on April 30, at Norfolk, Va., before a U. S. Government Commission.”

Not until May 6 did either of the brothers take a flight. But instead of ignoring the Wrights' achievements, the newspapers began to report what they had not done. On May 1, the Virginian-Pilot from Norfolk (the same paper that had inaccurately reported the first airplane flight) published a sensational story claiming that one of the Wright brothers had flown, the day before,217 ten miles out over the ocean! Almost the same story was widely circulated the next day. Katharine Wright telegraphed her brothers on May 2 to let them know that “the newspapers” had reported a flight. Later, the Wrights found out that the B. Z. Mittag in Berlin had a dispatch from Paris stating: “From America comes the news that the Wright brothers have made a controlled flight in public for the first time. The flight took place on April 30 in Norfolk, Va., before a U.S. Government Commission.”

That same story must have reached London, for the Wrights received a cablegram from Patrick Alexander: “Very hearty congratulations.”

That same story must have made its way to London, because the Wrights got a message from Patrick Alexander: “Huge congratulations.”

Joseph Dosher, who had been the Weather Bureau man at Kitty Hawk in 1903, but was now stationed 30 miles north of Kitty Hawk, telephoned to the Kill Devil life-saving crew, on May 2, seeking information about the Wrights, presumably at the request of some newspaper. That same day, the Greensboro (N. C.) News published a telegram from Elizabeth City, dated May 1, saying that the Wright brothers “of airship fame” were at Nag’s Head with their “famous flying-machine.”

Joseph Dosher, who had been the Weather Bureau guy at Kitty Hawk in 1903, but was now based 30 miles north of Kitty Hawk, called the Kill Devil life-saving crew on May 2, looking for information about the Wrights, probably at the request of a newspaper. That same day, the Greensboro (N.C.) News published a telegram from Elizabeth City, dated May 1, saying that the Wright brothers “of airship fame” were at Nag’s Head with their “famous flying-machine.”

On May 1, the New York Herald had wired to the Weather Bureau operator at Manteo, on Roanoke Island, for information. And on May 2, the Herald published an item with a Norfolk date line, that the Wrights were reported to have flown “over the ocean.” This dispatch appeared also in the Herald’s Paris edition. Just below the report in the Paris edition was an editorial comment that if the Wrights had actually flown two miles, then they had broken the records of Delagrange and Farman in France. The Herald editor evidently218 was still unaware that long before Delagrange, Farman, or other Wright copyists abroad had even left the ground in flight, the Wright brothers had flown twenty-four miles.

On May 1, the New York Herald sent a request to the Weather Bureau operator in Manteo, on Roanoke Island, for information. Then, on May 2, the Herald published an article with a Norfolk date line, stating that the Wrights were reported to have flown "over the ocean." This news also appeared in the Herald's Paris edition. Just below the report in the Paris edition was an editorial comment mentioning that if the Wrights had actually flown two miles, they would have broken the records of Delagrange and Farman in France. The Herald editor clearly218 did not realize that long before Delagrange, Farman, or other Wright imitators abroad had even taken off, the Wright brothers had flown twenty-four miles.

Inasmuch as the Wrights had not yet begun their flights of 1908, it was not easy for the New York Herald to obtain confirmation or more details about the imaginary flight out over the ocean. No regularly employed newspaperman at Norfolk wanted to go to Kitty Hawk on what might be a wild goose chase. But D. Bruce Salley, a free lance reporter at Norfolk, was willing to make the trip.

Insofar as the Wrights hadn't started their flights of 1908 yet, it was challenging for the New York Herald to get confirmation or more details about the rumored flight over the ocean. No regular reporter in Norfolk wanted to go to Kitty Hawk on what could turn out to be a wild goose chase. However, D. Bruce Salley, a freelance reporter in Norfolk, was willing to make the trip.

Salley reached Manteo on May 4, and the Wright brothers’ records show that he came to their camp the next day. He told the brothers he had been asked by a New York paper to investigate the story of their flight over the ocean. The day after Salley’s visit, the Wrights did make their first flight of the season, and though Salley did not see it, he learned about it by phone from one of the men at the Kill Devil life-saving station. His informant told him that one of the Wrights had flown at least 1,000 feet, at about sixty feet above the ground.

Salley arrived in Manteo on May 4, and the Wright brothers’ records indicate that he visited their camp the following day. He informed the brothers that a New York newspaper had asked him to look into the story of their flight over the ocean. The day after Salley's visit, the Wrights conducted their first flight of the season, and although Salley didn’t witness it, he found out about it over the phone from someone at the Kill Devil life-saving station. His source told him that one of the Wrights had flown at least 1,000 feet, roughly sixty feet off the ground.

Salley immediately sent a query from Manteo, giving briefly the gist of the story, to a list of papers he hoped would be interested. Most of the papers ignored the message; but the telegraph editor of the Cleveland (Ohio) Leader not only wasn’t interested but was indignant that his intelligence should be insulted by the offer of so improbable a tale. He declined to pay the telegraph toll for the short message, even though at the night press219 rate of only one-third of a cent a word the cost could hardly have been more than a dime. His only reply to Salley was an admonition to “cut out the wild-cat stuff.” Salley, now equally indignant, wired back offering to give names of well-known persons who could testify to his reliability; but the Cleveland editor paid no further attention.

Salley quickly sent a query from Manteo, summarizing the story briefly, to a list of newspapers he thought would be interested. Most of the newspapers ignored the message; however, the telegraph editor of the Cleveland (Ohio) Leader not only wasn’t interested but also felt insulted that he was offered such an unlikely story. He refused to cover the telegraph fee for the short message, even though at the night press219 rate of just one-third of a cent per word, the cost would have been barely more than ten cents. His only response to Salley was a warning to “cut out the wild-cat stuff.” Salley, now just as angry, sent a reply offering to provide names of reputable people who could confirm his credibility; but the Cleveland editor ignored him after that.

When Salley’s query reached the office of the New York Herald, it put the editors in a quandary. Though they had printed the brief report about a flight that hadn’t occurred, now they were beginning to wonder if all the reports about the Wrights weren’t fakes. Yet they knew that the owner of the paper, James Gordon Bennett, living in Paris, would almost certainly discharge any editor responsible for omitting the story if it were true. They decided, with misgivings, to print the story and it appeared the next morning on the first page of the Herald, though not in the most prominent position.

When Salley's inquiry reached the New York Herald office, it left the editors in a tough spot. Even though they had published a brief report about a flight that never happened, they were starting to question if all the Wright reports were just fake news. However, they also knew that the paper's owner, James Gordon Bennett, who was living in Paris, would definitely fire any editor who left out the story if it turned out to be true. With some hesitation, they decided to run the story, and it appeared the next morning on the front page of the Herald, although not in the most prominent spot.

Then the editors determined to send a staff man to Kitty Hawk for the facts. They picked for this job their star reporter, brilliant, lovable Byron R. Newton—later to become Assistant Secretary of the Treasury, and afterward Collector of Customs in New York—one of the ablest newspapermen of his time. If the Wrights proved to be fakers no one could do a better job than “By” Newton at exposing them.

Then the editors decided to send a staff reporter to Kitty Hawk to get the facts. They chose their top reporter, the brilliant and charming Byron R. Newton—who would later become Assistant Secretary of the Treasury and then Collector of Customs in New York—one of the most talented journalists of his era. If the Wrights turned out to be frauds, no one could do a better job than “By” Newton at exposing them.

Other editors, too, decided that the time had come to get the “lowdown” on the Wright brothers. By the time Newton reached the little boarding place, the Tranquil House, in Manteo, he had been joined by two other220 correspondents: William Hosier, of the New York American, and P. H. McGowan, of the London Daily Mail. The next day two others arrived: Arthur Ruhl, writer, and James H. Hare, photographer, for Collier’s Weekly.

Other editors also decided it was time to get the scoop on the Wright brothers. By the time Newton arrived at the little boarding house, the Tranquil House, in Manteo, he had been joined by two other220 reporters: William Hosier from the New York American and P. H. McGowan from the London Daily Mail. The next day, two more showed up: writer Arthur Ruhl and photographer James H. Hare from Collier’s Weekly.

The newly arrived correspondents, noting the desolate isolation of Kitty Hawk, thought it probable enough that the Wrights must prefer to be let alone. Perhaps, they thought, if intruders came, the Wrights wouldn’t fly at all. They decided that if the Wrights were secretive, they themselves would be no less so. They would hide in the pine woods, as near as possible to the Wright camp, and observe with field glasses what happened. That meant a short walk to a wharf on Roanoke Island, five miles by sailing boat to Haman’s Bay, across the sound, and then a walk of a mile or so over the sand to the place where they should secrete themselves. They made a dicker with a boatman to take them all back and forth each day and act as their guide. Provided with food and water, field glasses, and cameras, they set out about 4 o’clock each morning from May 11 to May 14 to keep their vigil. Hour after hour they fought mosquitoes and woodticks and sometimes were drenched by rain. But to their astonishment they several times witnessed human flight.

The newly arrived reporters, seeing the remote isolation of Kitty Hawk, thought it was likely that the Wrights preferred to be left alone. Maybe, they figured, if outsiders showed up, the Wrights wouldn’t fly at all. They decided that if the Wrights were secretive, they would be just as discreet. They would hide in the pine woods, as close as possible to the Wright camp, and watch with binoculars to see what happened. This meant a short walk to a dock on Roanoke Island, a five-mile sail to Haman’s Bay, across the sound, and then a mile or so walk over the sand to where they would conceal themselves. They struck a deal with a boatman to take them back and forth each day and serve as their guide. Equipped with food and water, binoculars, and cameras, they set out around 4 o’clock each morning from May 11 to May 14 to keep their watch. Hour after hour, they battled mosquitoes and ticks and sometimes got soaked by rain. But to their surprise, they witnessed human flight several times.

The first flight any of them witnessed was early in the morning of May 11. “For some minutes,” wrote Newton, “the propeller blades continued to flash in the sun, and then the machine rose obliquely into the air. At first it came directly toward us, so that we could not tell how fast it was going except that it appeared to increase221 rapidly in size as it approached. In the excitement of this first flight, men trained to observe details under all sorts of distractions forgot their cameras, forgot their watches, forgot everything but this aerial monster chattering over our heads.”

The first flight any of them saw was early in the morning on May 11. “For a few minutes,” Newton wrote, “the propeller blades kept glinting in the sun, and then the machine shot up into the air at an angle. At first, it came straight toward us, so we couldn’t tell how fast it was going, but it seemed to grow quickly in size as it got closer. In the excitement of this first flight, men trained to notice details amidst all sorts of distractions forgot their cameras, forgot their watches, forgot everything except this flying machine buzzing above us.”

However, “Jimmy” Hare got a good photograph of that flight.

However, “Jimmy” Hare got a great photo of that flight.

On May 14, the correspondents saw what no person on earth had ever seen before—a flying-machine under complete control carrying two men. First Wilbur made a short flight with Charles W. Furnas as passenger, and then Orville flew with Furnas for nearly three minutes.

On May 14, the reporters witnessed something no one on Earth had ever seen before—a fully controlled flying machine carrying two men. First, Wilbur took a short flight with Charles W. Furnas as his passenger, and then Orville flew with Furnas for nearly three minutes.

Newton predicted in his diary just after that: “Some day Congress will erect a monument here to these Wrights.”11

Newton wrote in his diary shortly after: “One day, Congress will put up a monument here for these Wrights.”11

The last flight on May 14, made by Wilbur Wright, ended in an accident. Wilbur had pulled a wrong lever. Repairs would have taken a week, and as the time the brothers could spare had elapsed, the experiments stopped. But after removing the engine and other machinery for shipment to Dayton, the Wrights left the plane in the shed at Kitty Hawk, thinking they might return. The ending of these trials brought no grief to222 the correspondents who had been getting up before daylight each morning, and returning to Manteo late each afternoon, footsore and tired, with their dispatches still to be written.

The last flight on May 14, made by Wilbur Wright, ended in an accident. Wilbur accidentally pulled the wrong lever. The repairs would have taken a week, and since the brothers had run out of time, the experiments were put on hold. After removing the engine and other equipment to be shipped to Dayton, the Wrights left the plane in the shed at Kitty Hawk, hoping to come back. The end of these trials didn’t upset the correspondents, who had been getting up before dawn each day and returning to Manteo late each afternoon, sore and exhausted, with their reports still to write.

One night’s dispatches had brought unexpected trouble for “By” Newton. Though his report had been filed ahead of McGowan’s, in plenty of time to be relayed from his paper’s New York office to Paris and appear in the next morning’s issue of the Paris edition, a needless delay occurred in New York. In consequence, Newton, through no fault of his own, was “scooped” by McGowan the next day in the continental edition of the London Daily Mail. When James Gordon Bennett, proprietor of the New York Herald, observed that his Paris Herald failed to have any account of the sensational flights at Kitty Hawk the day before, as reported in the rival Daily Mail, he was furious. During the two seasons when the Wrights had flown a total of 160 miles at Huffman prairie, Bennett, with scores of reporters at his disposal, had failed to learn the truth of what the Wrights had done. But now when he thought a reporter had missed a story about them, he did not wait to make inquiries but promptly sent a cable to New York ordering Newton suspended from the staff. Under Bennett’s way of conducting his papers, suspension usually was a preliminary to permanent discharge.

One night’s reports brought unexpected trouble for “By” Newton. Even though he submitted his report before McGowan's, well in advance for it to be sent from his paper’s New York office to Paris and included in the next morning’s Paris edition, a pointless delay happened in New York. As a result, Newton, through no fault of his own, was “scooped” by McGowan the next day in the continental edition of the London Daily Mail. When James Gordon Bennett, owner of the New York Herald, noticed that his Paris Herald didn’t have any coverage of the exciting flights at Kitty Hawk the day before, as reported in the competing Daily Mail, he was furious. During the two seasons when the Wrights flew a total of 160 miles at Huffman Prairie, Bennett, with plenty of reporters at his disposal, had failed to uncover the truth about what the Wrights had achieved. But now, thinking a reporter had missed a crucial story about them, he didn’t bother to ask questions and immediately sent a cable to New York ordering Newton’s suspension from the staff. Under Bennett’s management style, suspension was usually the first step towards permanent firing.

Though he was reinstated after he had sent to Bennett a review of the facts, along with some affidavits, Newton, all the rest of his life, felt a grievance against Bennett and the Herald.

Though he was reinstated after he sent Bennett a review of the facts along with some affidavits, Newton felt a grievance against Bennett and the Herald for the rest of his life.

Incidentally, McGowan’s “scoop” in the continental223 edition of the Daily Mail which had so disturbed Bennett, was not accepted as truth by everyone who read it. Charles A. Bertrand, in one of the Paris papers, May 15, published this comment: “He [McGowan] depicts the flight in a manner that does honor to his imagination. If the Wrights hadn’t been seen in Europe, one would be justified in believing their very existence as uncertain as their apparatus.”

Incidentally, McGowan’s “scoop” in the continental223 edition of the Daily Mail, which had upset Bennett so much, wasn't accepted as fact by everyone who read it. Charles A. Bertrand, in one of the Paris papers on May 15, published this comment: “He [McGowan] describes the flight in a way that does justice to his imagination. If the Wrights hadn't been seen in Europe, one would be justified in thinking their very existence was as uncertain as their equipment.”

During the several days the correspondents were at Kitty Hawk, the Wrights knew they were being observed. From time to time they caught glimpses of men’s heads over the hilltop in the distance. Moreover, they heard each day, from members of a life-saving crew, just how many visitors had come. But they simply thought it was a good joke on the mysterious observers, whoever they were.

During the few days the reporters were at Kitty Hawk, the Wrights realized they were being watched. Occasionally, they spotted the heads of men peeking over the hill in the distance. Additionally, each day, members of a life-saving crew told them how many visitors had arrived. But they just considered it a funny prank on the mysterious onlookers, whoever they were.

Arthur Ruhl, of Collier’s, had met the Wrights in Dayton about a year before. On May 14, before the final flight, he came over to the camp. But he said nothing about being a member of the group that had been observing the flights.

Arthur Ruhl, from Collier’s, had met the Wrights in Dayton about a year earlier. On May 14, before the final flight, he came to the camp. However, he didn't mention that he was part of the group that had been watching the flights.

The Wrights invited Ruhl to stay for lunch. But he declined. He seemed to the Wrights ill at ease and anxious to get away. At a meeting with him some time afterward they learned why. He had come against the wishes of the other correspondents and was afraid he might give away the fact that they were in the near-by woods.

The Wrights invited Ruhl to stay for lunch, but he turned them down. He appeared uncomfortable and eager to leave, which the Wrights noticed. Later, during a meeting, they found out why. He had come against the wishes of the other correspondents and was worried he might inadvertently reveal that they were nearby in the woods.

On May 15, the day after the crash, when it was evident that there would be no more flights, McGowan, of the Daily Mail, went to the camp, accompanied by224 still another correspondent who had just arrived, Gilson Gardner, of the Washington office of the Newspaper Enterprise Association. McGowan remarked that he had once visited Octave Chanute’s camp at Dune Park, near Chicago, in 1897 for the Chicago Tribune. Another visitor at the camp, a day or two before that, was a young man named J. C. Burkhardt, dressed in a brand-new outfit of hunting togs. He was a college boy who had come all the way from Ithaca just to satisfy his curiosity.

On May 15, the day after the crash, when it was clear that there would be no more flights, McGowan from the Daily Mail went to the camp with another reporter who had just arrived, Gilson Gardner from the Washington office of the Newspaper Enterprise Association. McGowan noted that he had visited Octave Chanute’s camp at Dune Park, near Chicago, in 1897 for the Chicago Tribune. Another visitor at the camp a day or two before was a young man named J. C. Burkhardt, dressed in a brand-new hunting outfit. He was a college student who had traveled all the way from Ithaca just to satisfy his curiosity.

“What would you have done,” Orville Wright was asked, afterward, “if all those correspondents had come right to your camp each day and sat there to watch you?”

“What would you have done,” Orville Wright was asked later, “if all those reporters had come to your camp every day and just sat there to watch you?”

“We’d have had to go ahead just as if they weren’t there,” he replied. “We couldn’t have delayed our work. There was too much to do and our time was short.”

“We would have had to keep going as if they weren’t there,” he replied. “We couldn’t delay our work. There was too much to do and our time was limited.”

That the Wrights would have treated the correspondents politely enough was indicated in a letter from Orville Wright to Byron Newton, dated June 7, 1908. Immediately after his return to New York, Newton had written graciously to the Wrights, enclosing clippings of his dispatches to the Herald, and expressing his admiration for them and their achievements.

That the Wrights would have treated the reporters politely is shown in a letter from Orville Wright to Byron Newton, dated June 7, 1908. Right after returning to New York, Newton wrote kindly to the Wrights, including clippings of his articles for the Herald, and expressing his admiration for them and their accomplishments.

“We were aware of the presence of newspapermen in the woods,” wrote Orville in reply; “at least we had often been told that they were there. Their presence, however, did not bother us in the least, and I am only sorry that you did not come over to see us at our camp. The display of a white flag would have disposed of the225 rifles and shotguns with which the machine is reported to have been guarded.”

“We knew there were reporters in the woods,” Orville wrote in reply; “at least that’s what we’d often heard. Their presence didn’t bother us at all, and I regret that you didn’t come over to visit us at our camp. A white flag would have taken care of the 225 rifles and shotguns that are said to have guarded the machine.”

After publication of many dispatches from these eyewitnesses at Kitty Hawk and front page headlines, it might have been expected that the fact of human flight would now be generally accepted. As Newton had written to his paper, there was “no longer any ground for questioning the performance of these men and their wonderful machine.” Ruhl in Collier’s had told how the correspondents had informed the world that “it was all right, the rumors true—that man could fly.” Yet even such reports by leading journalists still did not convince the general public. People began to concede that perhaps there might be something in it, but many newspapers still did not publish the news. When Newton sent an article, some weeks later, on what he had seen at Kitty Hawk, to a leading magazine, it came back to him with the editor’s comment: “While your manuscript has been read with much interest, it does not seem to qualify either as fact or fiction.”

After the publication of many accounts from eyewitnesses at Kitty Hawk and front-page headlines, it might have been expected that the fact of human flight would now be widely accepted. As Newton had written to his paper, there was “no longer any ground for questioning the performance of these men and their amazing machine.” Ruhl in Collier’s explained how the correspondents had informed the world that “it was all right, the rumors were true—that man could fly.” Yet even such reports by prominent journalists still didn't convince the general public. People started to admit that there might be some truth to it, but many newspapers still chose not to publish the news. When Newton sent an article, a few weeks later, about what he had witnessed at Kitty Hawk to a leading magazine, it was returned to him with the editor's remark: “While your manuscript has been read with great interest, it doesn’t seem to qualify as either fact or fiction.”


The Wrights decided that Wilbur should go to France to make the demonstrations there. Orville would stay in America to build the machine for the United States Government and test it at Fort Myer, near Washington. Wilbur did not return to Dayton from Kitty Hawk but went to New York where he sailed for Europe on May 21.

The Wrights decided that Wilbur should travel to France for the demonstrations. Orville would stay in America to construct the machine for the United States Government and test it at Fort Myer, near Washington. Instead of going back to Dayton from Kitty Hawk, Wilbur went to New York, where he left for Europe on May 21.

Orville arrived at Fort Myer in August. Two mechanics, Taylor and Furnas, who were to assist him, had reached there a few days earlier. Army officers designated a shed on the Fort Myer grounds for use in assembling and housing the plane.

Orville got to Fort Myer in August. Two mechanics, Taylor and Furnas, who were going to help him, had arrived a few days earlier. Army officers assigned a shed on the Fort Myer grounds for assembling and storing the plane.

Orville’s first flight was on September 3, 1908. He went from the Cosmos Club, where he was staying, to Fort Myer by street car. It is doubtful if any of the others on that car suspected that this fellow passenger was on his way to perform a miracle. When he reached Fort Myer, Orville got the impression that not all the Army officers present thought he would succeed in meeting the tests required by the contract. The area from which the flights would be made was only about 700 by 1,000 feet. Neither of the Wrights had ever before made flights within so small a space.

Orville's first flight took place on September 3, 1908. He took a streetcar from the Cosmos Club, where he was staying, to Fort Myer. It's likely that none of the other passengers on that streetcar realized that this fellow rider was on his way to achieve something amazing. When he arrived at Fort Myer, Orville sensed that not all the Army officers there believed he would pass the tests required by the contract. The area designated for the flights was only about 700 by 1,000 feet. Neither of the Wright brothers had ever made flights in such a small space before.

Considering that this was an opportunity to see the227 outstanding wonder of the century, the crowd that strung about the parade ground was small. Theodore Roosevelt, Jr., estimated it for his father, then President, at less than one thousand. Indeed, it was probably much less than that.

Considering that this was a chance to witness the227 remarkable wonder of the century, the crowd gathered around the parade ground was small. Theodore Roosevelt, Jr. estimated it for his father, then President, at fewer than a thousand. In fact, it was likely much less than that.

Orville circled the field one and one-half times on that first test and was in the air only one minute, eleven seconds; but the crowd “went crazy.” “When the plane first rose,” said Roosevelt, Jr., in describing the event, years afterward, “the crowd’s gasp of astonishment was not alone at the wonder of it, but because it was so unexpected. I’ll never forget the impression the sound from the crowd made on me. It was a sound of complete surprise.”

Orville flew around the field one and a half times on that first test and was in the air for just one minute and eleven seconds, but the crowd “went wild.” “When the plane first lifted off,” Roosevelt Jr. recalled years later, “the crowd gasped in amazement, not just at the spectacle itself, but because it was so unexpected. I'll never forget how surprising the crowd's reaction was to me. It was a sound of total astonishment.”

When he landed after this flight it was Orville’s turn to be astonished. Three or four supposedly “hard-boiled” newspapermen who rushed up to interview him had been so stirred by witnessing the “impossible” that each of them had tears streaming down his cheeks.

When he landed after this flight, it was Orville’s turn to be amazed. Three or four supposedly “tough” reporters who rushed up to interview him had been so moved by seeing the “impossible” that each of them had tears streaming down their faces.

(Those who witnessed this flight might have been prepared for what they saw and less surprised, since Wilbur Wright for more than a month had been making flights in France—told about in a later chapter—and some of these were reported in the newspapers. But the brief newspaper accounts of Wilbur’s flights seldom if ever had first page display and were not treated as important news. On August 9, the day after Wilbur’s first flight, the New York Times had no mention of the event, though it gave first page space to a dispatch from Canton, Ohio, about a balloon trip, and to a dispatch from228 Berlin about the German Kaiser contributing to a fund for building another Zeppelin airship.)

(Those who saw this flight might have been prepared for what they observed and less shocked, since Wilbur Wright had been making flights in France for over a month—detailed in a later chapter—and some of these were reported in the news. However, the brief newspaper articles about Wilbur’s flights rarely, if ever, made the front page and were not considered significant news. On August 9, the day after Wilbur’s first flight, the New York Times didn’t mention the event, even though it featured a front-page story about a balloon trip from Canton, Ohio, and another dispatch from Berlin about the German Kaiser donating to a fund for building another Zeppelin airship.)

Nor did newspapers show too much excitement about this great public demonstration of practical aviation. It was not considered front page news even by Washington papers. The New York World account was on page five and most of the report was not about the wonder of the flying-machine, but about the behavior of the crowd, described as in fear of being hit by what the World called “the vessel.”

Nor did newspapers seem too excited about this major public display of practical aviation. It wasn't considered front-page news, even by the Washington papers. The New York World placed the story on page five, and most of the report focused not on the marvel of the flying machine, but on how the crowd behaved, described as being afraid of being struck by what the World referred to as “the vessel.”

Many thousands were present on the second day of the tests when Orville flew about three miles in four minutes, fifteen seconds. After one of these flights, a reporter, it was said, got in touch with Professor Simon Newcomb who, a few years before, had so irrefutably explained why flying was impossible. The reporter wanted to know if Professor Newcomb thought passenger planes would be the next step.

Many thousands were there on the second day of the tests when Orville flew about three miles in four minutes and fifteen seconds. After one of these flights, a reporter reportedly contacted Professor Simon Newcomb, who had definitively explained a few years earlier why flying was impossible. The reporter wanted to know if Professor Newcomb believed passenger planes would be the next step.

“No,” Newcomb was reported to have replied, “because no plane could ever carry the weight of anyone besides the pilot.” It might have been expected that by this time Professor Newcomb would have become more cautious!

“No,” Newcomb was reported to have replied, “because no plane could ever carry the weight of anyone other than the pilot.” You would think that by now, Professor Newcomb would have become more careful!

Orville made a short flight on September 7, and two flights the next day; one of eleven minutes, ten seconds; the other of seven minutes, thirty-four seconds. On the morning of September 9, he circled the field fifty-seven times in fifty-seven minutes, twenty-five seconds. Later in the day, he circled the field fifty-five times in one hour, two and one-quarter minutes. Then he surprised and delighted his friend, Lieutenant Frank P. Lahm, by229 inviting him to go with him for a flight. They were in the air six minutes, twenty-four seconds, and circled the field six and one-half times. All three of these flights on the ninth established new world endurance records; two of them for flights with pilot alone, and the third for pilot with passenger. Orville made a flight of one hour, five minutes, fifty-two seconds on September 10, rising to a height of 200 feet and exceeding the world endurance record made by himself the day before. On the next day he again broke the one-man endurance record by flying for one hour, ten minutes, and twenty-four seconds, while circling the field fifty-seven times and describing two figure eights. On the twelfth, he increased the two-man endurance record by taking with him Major George O. Squier, Acting Chief Signal Officer, for a flight of nine minutes, six seconds. Immediately after that, Orville made a flight alone. He circled the field seventy-one times in one hour and fifteen minutes—again breaking the endurance record for one-man flight. It was estimated that he reached a height of 300 feet.

Orville took a short flight on September 7, and then made two flights the following day; one lasted eleven minutes and ten seconds, and the other was seven minutes and thirty-four seconds. On the morning of September 9, he circled the field fifty-seven times in fifty-seven minutes and twenty-five seconds. Later that day, he circled the field fifty-five times in one hour and two and a quarter minutes. He then surprised and delighted his friend, Lieutenant Frank P. Lahm, by inviting him to join him for a flight. They were in the air for six minutes and twenty-four seconds, completing six and a half laps around the field. All three flights on the ninth set new world endurance records; two were for solo flights, and the third was for a flight with a passenger. Orville made a flight of one hour, five minutes, and fifty-two seconds on September 10, reaching a height of 200 feet and surpassing the world endurance record he had set just the day before. The next day, he broke the one-man endurance record again by flying for one hour, ten minutes, and twenty-four seconds, while circling the field fifty-seven times and performing two figure eights. On the twelfth, he raised the two-man endurance record by taking Major George O. Squier, Acting Chief Signal Officer, for a flight lasting nine minutes and six seconds. Right after that, Orville flew solo again, circling the field seventy-one times in one hour and fifteen minutes—again breaking the endurance record for solo flights. It was estimated that he reached a height of 300 feet.

The next and final flight, September 17, ended in tragedy. Lieutenant Thomas Selfridge, a twenty-six-year-old West Point graduate, from San Francisco, had been assigned at his own request to go along as passenger. Before they had been in the air more than three or four minutes, and while in the fourth round at a height of about 125 feet over the field, Orville heard, or felt, a light tapping in the rear part of the machine. He thought it was in the chain drive. A hurried glance revealed nothing wrong there; but he decided to shut off230 the power and descend. Hardly had he reached this decision when two big thumps, which shook the machine violently, followed by the machine swerving to the right, showed that something had gone wrong. He immediately shut off the motor. Directly ahead was a gulley filled with small trees, a dangerous landing spot. He decided on a half-circle to the left, to land on the parade grounds, and it was then that he discovered that the tail was inoperative. By twisting the wings to give the greatest possible resistance to the left one, he did succeed in turning the machine until it faced directly into the field. In this maneuver the machine had descended about one-third of the way toward the ground without any indication of serious trouble. Orville moved the lever to straighten the wing tips, to proceed straight ahead. Then the machine suddenly turned down in front. For fifty feet it was headed almost directly toward the ground, although the front elevator was turned to its limit. When about twenty-five feet from the ground the machine began to right itself, and if there had been another twenty feet to go, or possibly even ten feet, it might have landed safely.

The next and final flight on September 17 ended in tragedy. Lieutenant Thomas Selfridge, a 26-year-old West Point graduate from San Francisco, had requested to be a passenger on this flight. Just three or four minutes into the air, while circling at about 125 feet above the field, Orville felt a light tapping in the back of the aircraft. He thought it might be an issue with the chain drive. A quick check showed nothing wrong there, so he decided to cut the power and descend. Just as he made that decision, two loud thuds shook the aircraft violently, followed by it swerving to the right, indicating that something had gone wrong. He immediately shut off the engine. In front of him was a gully full of small trees, making it a hazardous landing spot. He chose to make a half-circle turn to the left to land on the parade grounds, but that’s when he realized the tail was unresponsive. By twisting the wings to create the most resistance on the left side, he managed to turn the aircraft so it faced directly toward the field. During this maneuver, the aircraft had descended about one-third of the way toward the ground with no sign of serious issues. Orville adjusted the lever to straighten the wing tips and aimed to go straight ahead. Then, suddenly, the aircraft tipped downward. For about fifty feet, it was pointed almost straight at the ground, even though the front elevator was fully raised. When it was about twenty-five feet from the ground, the aircraft began to right itself, and if there had been another twenty feet or maybe even ten feet left, it might have landed safely.

But the recovery of control came too late. The machine hit the ground with such impact that Lieutenant Selfridge was fatally injured and died a few hours later. His skull had been fractured by a blow against one of the wooden uprights of the framework. Orville, though at first believed to be perhaps fatally hurt, had miraculously escaped with what then appeared to be only a fractured left leg and four broken ribs. He never lost consciousness and his first concern was about Selfridge.231 (Not until twelve years later, after suffering severe pains, did Orville learn, from a careful X-ray examination in a famous medical clinic, that the Fort Myer accident had also caused three fractures in the hip bones, besides a dislocation of one of them.)

But the recovery of control came too late. The machine hit the ground with such force that Lieutenant Selfridge was fatally injured and died a few hours later. His skull had been fractured by a blow against one of the wooden supports of the framework. Orville, initially thought to be seriously injured, had miraculously escaped with what seemed to be just a broken left leg and four broken ribs. He never lost consciousness and his first concern was for Selfridge.231 (Not until twelve years later, after experiencing severe pain, did Orville learn, from a detailed X-ray examination at a well-known medical clinic, that the Fort Myer accident had also caused three fractures in his hip bones, along with a dislocation of one of them.)

Now that an airplane passenger had been killed, the Fort Myer demonstrations at last reached the front pages of newspapers.

Now that a passenger on an airplane had been killed, the Fort Myer demonstrations finally made it to the front pages of newspapers.

The day after the accident, the mechanics, Taylor and Fumas, brought the broken propeller and some of the other broken parts to Orville’s bedside. From these parts he was able to determine the cause of the accident. A new pair of propellers, several inches longer than any previously used, had been installed just before the flight. The trouble started when a longitudinal crack developed in one blade of the right propeller. This crack permitted the blade to flatten and lose much of its thrust, with the result that the pressures on the two blades became unequal, causing a severe vibration of the propeller shaft housing. The vibration loosened one of the stay wires that held in position the tube in which the propeller shaft turned. Then the propeller began to swing sidewise and forward until a blade hit and tore loose the stay wire to the vertical tail, permitting the tail to take a nearly horizontal position. A pressure on the tail’s underside lifted the rear of the machine, thus causing it to dart for the ground.

The day after the accident, the mechanics, Taylor and Fumas, brought the broken propeller and some other damaged parts to Orville’s bedside. From these parts, he was able to figure out what caused the accident. A new set of propellers, several inches longer than any used before, had been installed just before the flight. The problem started when a longitudinal crack developed in one blade of the right propeller. This crack allowed the blade to flatten and lose much of its thrust, which caused unequal pressure on the two blades, leading to severe vibration of the propeller shaft housing. The vibration loosened one of the stay wires that secured the tube through which the propeller shaft turned. Then the propeller began to swing sideways and forward until a blade hit and tore loose the stay wire to the vertical tail, allowing the tail to drop to nearly horizontal. Pressure on the underside of the tail lifted the back of the machine, causing it to dive toward the ground.

While Orville was recovering from his injuries, an acquaintance, C. H. Claudy, visited him and asked:

While Orville was recovering from his injuries, a friend, C. H. Claudy, came to see him and asked:

“Has it got your nerve?”

“Does it get on your nerves?”

“Nerve?” repeated Orville, not quite understanding.232 “Oh, you mean will I be afraid to fly again? The only thing I’m afraid of is that I can’t get well soon enough to finish those tests next year.”

“Nerve?” Orville repeated, not really getting it.232 “Oh, you mean will I be afraid to fly again? The only thing I’m worried about is not getting better fast enough to finish those tests next year.”

The cost had been high, but one result of those incomplete tests was that widespread incredulity in the United States about the Wrights’ achievements now finally ceased. At last, everyone, including even the most skeptical scientists, was convinced that a practical flying-machine was a reality.

The cost had been high, but one result of those incomplete tests was that widespread disbelief in the United States about the Wrights’ achievements finally came to an end. At last, everyone, including even the most skeptical scientists, was convinced that a practical flying machine was a reality.


Wilbur Wright reached France in May, 1908, to fly the Wright machine that for a year had been in its crate at the customs warehouse in Le Havre. If he accomplished what he expected, final details of the Wrights’ business arrangement with the recently formed French syndicate would be carried out.

Wilbur Wright arrived in France in May 1908 to fly the Wright plane that had been sitting in its crate at the customs warehouse in Le Havre for a year. If he achieved what he aimed for, the final details of the Wrights' business deal with the newly established French syndicate would be completed.

As during the previous stay, when both the Wright brothers were in Europe, Wilbur kept in close touch with Hart O. Berg, European associate of Charles R. Flint & Co., the Wrights’ business representatives in all except the English-speaking countries. One of the first questions to be settled was where the actual demonstration of the Wright plane should take place. Naturally, there were not yet any areas in Europe designated as flying fields.

As during their last visit when both Wright brothers were in Europe, Wilbur stayed in close contact with Hart O. Berg, the European associate of Charles R. Flint & Co., who represented the Wrights in all countries except English-speaking ones. One of the first things to figure out was where the actual demonstration of the Wright plane should happen. Naturally, there weren’t any areas in Europe yet designated as flying fields.

The locality for the flights was determined in consequence of the courtesies of Léon Bollée, an automobile manufacturer, who had a factory at Le Mans, about 125 miles from Paris.12 When Bollée learned that Wilbur Wright was in France and looking for a suitable field, he sent a message to Wilbur suggesting that a satisfactory place could doubtless be found near Le Mans where234 there was a great stretch of level country. He added that Wilbur would be welcome to use a wing of the Bollée factory for assembling his plane. Wilbur Wright and Hart O. Berg took a train to Le Mans where they spent several hours “looking for a good pasture.” The most nearly ideal field for their purpose was a large open area at Auvours, about five miles from Le Mans, used by the French war department for testing artillery; but it was not then available. Another place they noticed was the Hunaudières race track. The oval field within the track appeared to be large enough for their needs. There were a few trees, but Wilbur said he could easily steer clear of them. The next day, in Paris, M. Nicolai, president of the Jockey Club and principal owner of the Hunaudières race track, agreed to the use of the field, at a monthly rental, for as long as needed.

The location for the flights was chosen because of the generosity of Léon Bollée, an automobile manufacturer with a factory in Le Mans, about 125 miles from Paris. When Bollée learned that Wilbur Wright was in France searching for a suitable field, he messaged Wilbur suggesting that a good spot could likely be found near Le Mans, where there was a vast expanse of flat land. He also offered Wilbur the use of a wing of the Bollée factory to assemble his plane. Wilbur Wright and Hart O. Berg took a train to Le Mans, where they spent several hours “looking for a good pasture.” The closest ideal field for their needs was a large open area at Auvours, about five miles from Le Mans, which the French war department used for testing artillery; however, it wasn't available at that time. They also noticed the Hunaudières race track. The oval field within the track seemed big enough for what they needed. There were a few trees, but Wilbur said he could easily avoid them. The next day in Paris, M. Nicolai, president of the Jockey Club and main owner of the Hunaudières race track, agreed to let them use the field for a monthly rental, for as long as they needed.

Now the crated Wright plane was shipped from Le Havre to the Bollée factory and, late in June, Wilbur set to work there. He assembled the working parts and put the motor and cooling system to a series of rigid tests. On July 4 Wilbur met with a painful accident. A rubber connection in the cooling system burst and he was badly scalded on his left arm by hot water. This was one of several unavoidable delays that made many skeptics think it would be a long time before Wilbur would attempt a public demonstration. One Paris newspaper said: “Le bluff continue.” Wilbur had been quoted as saying that the tests would be “child’s play,” and “jeu d’enfant” was often repeated, with sarcasm, by the incredulous.

Now the crated Wright plane was shipped from Le Havre to the Bollée factory, and in late June, Wilbur got to work there. He put together the working parts and subjected the motor and cooling system to a series of tough tests. On July 4, Wilbur experienced a painful accident. A rubber connection in the cooling system burst, and he was badly burned on his left arm by hot water. This was one of several unavoidable delays that led many skeptics to think it would be a long time before Wilbur would try a public demonstration. One Paris newspaper stated: “Le bluff continue.” Wilbur had been quoted as saying that the tests would be “child’s play,” and “jeu d’enfant” was often repeated, sarcastically, by those who doubted.

Painful as his burns were, Wilbur saw a funny side to the accident and sent home a hilarious letter about the235 French doctor who came “with a keg of oil” to apply to the blisters.

Painful as his burns were, Wilbur saw the funny side of the accident and sent home a hilarious letter about the235 French doctor who came “with a keg of oil” to apply to the blisters.

Shortly afterward, Wilbur wanted a coiled wire spring to insert in a hose used in the cooling system, to prevent the hose from collapsing from suction. A French mechanic who had been assisting him went with him to a near-by factory to have the coil made. Not knowing any French, Wilbur could not follow the long conversation he overheard, but they came away without the coil. It seemed strange to Wilbur that the kind of wire needed should not have been easily obtainable and he spoke of this to the man who had been his interpreter.

Shortly after that, Wilbur wanted a coiled wire spring to put inside a hose in the cooling system to stop it from collapsing under suction. A French mechanic who had been helping him went with him to a nearby factory to get the coil made. Since Wilbur didn’t speak any French, he couldn’t understand the lengthy conversation he overheard, but they left without the coil. It seemed odd to Wilbur that the specific type of wire they needed was not readily available, and he mentioned this to the person who had been interpreting for him.

But, said the Frenchman, the wire was available.

But, the Frenchman said, the wire was available.

“Then,” asked Wilbur, in surprise, “why didn’t we get it?”

“Then,” asked Wilbur, surprised, “why didn’t we get it?”

Oh, explained the Frenchman, because when he and the man at the factory talked it over it didn’t seem to them that using a coiled wire spring in the way Wilbur had in mind was a sound idea!

Oh, the Frenchman explained, because when he and the guy at the factory discussed it, they didn’t think that using a coiled wire spring the way Wilbur envisioned was a good idea!

While working on his machine at the Bollée factory, Wilbur did something, probably just because it seemed the natural thing to do, with no thought of the impression it would make, that delighted the hearts of the factory employees. He kept the same hours that the others did and his whole behavior was as if he were simply one more workman. When the whistle blew for the noon hour, he knocked off along with the others, and went, in overalls, to lunch. This lack of any sign of aloofness caused much favorable comment.

While working on his machine at the Bollée factory, Wilbur did something that likely felt completely natural to him, without considering how it would be perceived, which made the factory employees very happy. He worked the same hours as everyone else, and his entire demeanor was as if he were just another worker. When the whistle blew for lunch, he stopped like the others and went to have lunch in his overalls. This absence of any sense of superiority led to a lot of positive remarks.

Wilbur’s greatest admirer, however, was Léon Bollée himself. Though they had no common language, they236 managed to exchange ideas and formed a warm friendship. Bollée, a jolly rotund man with a saucy little beard, was ever ready to be of any service. Incidentally, though Bollée had no thought of personal gain when he generously offered the use of space in his factory, the fact that Wilbur worked on his plane there did not hurt the sale of Bollée cars.

Wilbur’s biggest fan, however, was Léon Bollée himself. Even though they didn’t share a common language, they236 found ways to share ideas and developed a close friendship. Bollée, a cheerful, chubby man with a cheeky little beard, was always eager to help. Interestingly, even though Bollée had no intention of benefiting personally when he generously offered space in his factory, the fact that Wilbur worked on his plane there certainly boosted the sales of Bollée cars.

But the work was soon transferred from the Bollée factory to the field at Hunaudières where a hastily constructed hangar had been built. Another item of preparation was the setting up of a launching derrick, similar to the one the Wrights had first used in their experiments at the Huffman pasture. Huge weights were attached at one end of a rope which ran over pulleys and had a metal ring at the other end to be caught on a hook at the front of the plane. When the plane shot forward, the rope automatically dropped away. As at previous trials, the plane when ready to take off rested on a small truck having two flanged wheels that ran on a single-rail, iron-shod, wooden track, about sixty feet long.

But the work was quickly moved from the Bollée factory to the site at Hunaudières, where a makeshift hangar had been built. Another part of the preparation involved setting up a launch derrick, similar to the one the Wrights had first used in their experiments at the Huffman pasture. Heavy weights were attached to one end of a rope that ran over pulleys, with a metal ring at the other end that would hook onto a catch at the front of the plane. When the plane took off, the rope would automatically drop away. As in previous trials, the plane, when ready to lift off, rested on a small truck with two flanged wheels that ran on a single-rail, iron-shod wooden track about sixty feet long.

Not until August 8, did Wilbur attempt his first flight. A good-sized crowd was present, the majority from Le Mans and the near-by countryside, but it included many members of the Aéro Club of France and various newspaper representatives from Paris.

Not until August 8 did Wilbur try his first flight. A large crowd was there, mostly from Le Mans and the surrounding countryside, but it also included many members of the Aéro Club of France and various newspaper representatives from Paris.

In describing the scene, years afterward, Hart O. Berg said: “Wilbur Wright’s quiet self-confidence was reassuring. One thing that, to me at least, made his appearance all the more dramatic, was that he was not dressed as if about to do something daring or unusual. He, of course, had no special pilot’s helmet or jacket, since no237 such garb yet existed, but appeared in the ordinary gray suit he usually wore, and a cap. And he had on, as he nearly always did when not in overalls, a high, starched collar.”

In describing the scene years later, Hart O. Berg said: “Wilbur Wright’s quiet self-confidence was reassuring. One thing that made his appearance even more striking, at least to me, was that he wasn’t dressed as if he was about to do something daring or out of the ordinary. He didn’t have any special pilot’s helmet or jacket since those didn’t exist yet; instead, he wore the typical gray suit he usually had on, along with a cap. And he had on, as he almost always did when not in overalls, a high, starched collar.”

At least one man among the spectators felt certain the flight would not be a success. That was M. Archdeacon, prominent in the Aéro Club. So sure was M. Archdeacon that Wilbur Wright would be deflated that, as the time set for the flight approached, he was explaining to those near him in the grandstand just what was “wrong” about the design of the Wright machine, and why it could not be expected to fly well.

At least one man in the crowd was sure that the flight wouldn’t succeed. That was M. Archdeacon, a well-known member of the Aéro Club. M. Archdeacon was so confident that Wilbur Wright would fail that, as the flight time got closer, he was explaining to those around him in the grandstand exactly what was “wrong” with the design of the Wright machine and why it shouldn’t be expected to fly well.

Wilbur’s immediate preparations had been made with great care. First of all, the starting rail had been set precisely in the direction of and against the wind. The engine was started by two men, each pulling down a blade of the two propellers and the plane was held back by a wire attached to a hook and releasing trigger near the pilot’s seat. After the engine was warmed up, Fleury, Berg’s chauffeur, took hold of the right wing. Wilbur released the trigger and the plane was pulled forward by the falling weights. Fleury kept it in balance until the accelerating speed left him behind. By the time it had reached the end of the rail, the plane left the track with enough speed to sustain itself and climb.

Wilbur's immediate preparations were done with great attention to detail. First, the starting rail was positioned exactly in line with the wind. Two men started the engine by pulling down on the blades of the two propellers, while the plane was held in place by a wire connected to a hook and a release trigger near the pilot's seat. After the engine warmed up, Fleury, Berg’s driver, grabbed the right wing. Wilbur released the trigger, and the plane was propelled forward by the falling weights. Fleury kept it balanced until its increasing speed outpaced him. By the time it reached the end of the rail, the plane had enough speed to lift off the track and climb.

At some distance, directly in front of Wilbur as he started to rise, were tall trees, but they gave him no concern. He bore off easily to the left and went ahead in a curve that brought him back almost over the starting point. Then he swung to the right and made another great turn. Most of the time he was thirty or thirty-five238 feet above the ground. He was in the air only one minute and forty-five seconds, but he had made history.

At some distance, right in front of Wilbur as he began to rise, were tall trees, but he didn’t worry about them. He smoothly angled to the left and continued in a curve that nearly took him back over where he started. Then he moved to the right and made another wide turn. Most of the time, he was about thirty or thirty-five238 feet above the ground. He was in the air for just one minute and forty-five seconds, but he had made history.

The crowd knew well they had “seen something” and behaved accordingly. In the excited babel of voices one or two phrases could be heard again and again. “Cet homme a conquis l’air!” “Il n’est pas bluffeur!” Yes, truly Wilbur had conquered the air, and he was no bluffer. That American word “bluffer” had been much used during the time that reports from the United States about the Wrights had been stirring controversy in France. Now “bluffeur” became, more than ever, a part of the French language. “To think that one would call the Wrights ‘bluffeurs’!” lamented the French press over and over again.

The crowd clearly knew they had "seen something" and acted accordingly. In the excited chatter, one or two phrases echoed repeatedly. “Cet homme a conquis l’air!” “Il n’est pas bluffeur!” Yes, Wilbur had truly conquered the air, and he was no bluffer. The American term “bluffer” had been widely used while reports from the United States about the Wrights stirred up controversy in France. Now “bluffeur” had become even more a part of the French language. “To think that anyone would call the Wrights ‘bluffeurs’!” the French press lamented over and over again.

For the next few minutes after Wilbur landed, Berg was kept busy laughingly warding off agitated Frenchmen who sought to bestow a formal accolade by kissing Wilbur in the French manner on both cheeks. He suspected that Wilbur might consider that carrying enthusiasm too far.

For the next few minutes after Wilbur landed, Berg was kept busy jokingly fending off excited Frenchmen who wanted to give Wilbur a formal greeting by kissing him on both cheeks, as is the French way. He thought that Wilbur might see that as a bit too much enthusiasm.

One of the skeptical members of the Aéro Club, Edouard Surcouf, a balloonist, had arrived at the field late, barely in time to see Wilbur in the air. Now he was about the most enthusiastic of all. He rushed up to Berg, exclaiming: “C’est le plus grand erreur du siècle!” Disbelieving the claims of the Wrights may not have been the biggest error of the century, but obviously it had at least been a mistake.

One of the skeptical members of the Aéro Club, Edouard Surcouf, a balloonist, arrived at the field late, just in time to see Wilbur in the air. Now he was among the most enthusiastic of all. He rushed up to Berg, exclaiming: “C’est le plus grand erreur du siècle!” Not believing the Wrights' claims might not have been the biggest mistake of the century, but it was definitely a mistake.

The only person who offered criticism or minimized the brilliance of his feat was Wilbur Wright. When asked by a reporter for the Paris edition of the New239 York Herald if he was satisfied with the exhibition, he replied, according to that paper: “Not altogether. When in the air I made no less than ten mistakes owing to the fact that I have been laying off from flying so long; but I corrected them rapidly, so I don’t suppose anyone watching really knew I had made any mistake at all. I was very pleased at the way my first flight in France was received.”

The only person who criticized or downplayed the greatness of his achievement was Wilbur Wright. When a reporter for the Paris edition of the New239 York Herald asked him if he was happy with the exhibition, he responded, according to that paper: “Not entirely. While in the air, I made at least ten mistakes because I’ve been away from flying for so long; but I fixed them quickly, so I don’t think anyone watching really noticed I made any mistakes at all. I was very pleased with how my first flight in France was received.”

A crowd of Aéro Club members and other admirers were insistent that Wilbur should go back to Paris with them to celebrate the achievement at the best dinner to be obtained in that center of inspired cooking. But Wilbur just thanked them and said he wished to give his machine a little going over. Early that evening, so the newspapers reported, “he was asleep at the side of his creation.”

A group of Aéro Club members and other fans really wanted Wilbur to return to Paris with them to celebrate the achievement at the best restaurant known for its amazing food. But Wilbur simply thanked them and said he wanted to check over his machine. That evening, as the newspapers reported, “he was asleep next to his creation.”

The French press the next day not only treated the flight as the biggest news, but was unsparing in its praise, as were various rivals in the field of aviation who were quoted. All admitted that there was a world of difference between the best French plane yet produced and the one Wilbur Wright had just demonstrated. The Figaro said: “It was not merely a success but a triumph; a conclusive trial and a decisive victory for aviation, the news of which will revolutionize scientific circles throughout the world.” Le Journal observed that: “It was the first trial of the Wright airplane, whose qualities have long been regarded with doubt, and it was perfect.”

The French press the next day not only covered the flight as the biggest news story, but also praised it extensively, with various aviation competitors being quoted. Everyone agreed that there was a huge difference between the best French plane produced so far and the one Wilbur Wright had just demonstrated. The Figaro stated: “It was not just a success but a triumph; a definitive trial and a clear victory for aviation, the news of which will change scientific circles around the globe.” Le Journal noted: “It was the first test of the Wright airplane, whose abilities have long been doubted, and it was flawless.”

Louis Bleriot, member of the Aéro Club, wealthy manufacturer of automobile headlights, and himself a240 flyer, was quoted in Le Matin as saying: “The Wright machine is indeed superior to our airplanes.”

Louis Bleriot, a member of the Aéro Club, a wealthy manufacturer of car headlights, and a pilot himself, was quoted in Le Matin as saying: “The Wright machine is definitely better than our airplanes.”

As early as May, 1908, when the Wrights were still at Kitty Hawk, the Frenchman, Henri Farman, had issued a challenge to them to participate in a flying contest, for $5,000—later raised to $10,000. But the challenge, made only in public prints, was never sent directly to the Wrights. It may have been simply what today would be called a “publicity stunt.” (Farman’s best straightaway flight of about a mile and a quarter had been made at Issy, France, on March 21, 1908.) Nothing more was heard of the Farman challenge now. A French paper commented that the Farman plane and also that of Léon Delagrange were approximate copies of the Wright plane but that the Wright machine “seems more solid, more controllable, and more scientific.”

As early as May 1908, when the Wrights were still at Kitty Hawk, Henri Farman from France had issued a challenge for them to join a flying contest with a prize of $5,000, which was later increased to $10,000. However, this challenge was only made public and was never sent directly to the Wrights. It might have just been what we’d call a “publicity stunt” today. (Farman’s best straight flight of about a mile and a quarter occurred in Issy, France, on March 21, 1908.) No further news came regarding the Farman challenge. A French newspaper noted that both the Farman and Léon Delagrange's planes were close copies of the Wright aircraft but mentioned that the Wright machine “seems more solid, more controllable, and more scientific.”

Two days after that first demonstration, on August 10, Wilbur made two more short flights, the first one a figure eight, and the other, three complete circles. He flew on August 11 for 3 minutes 43 seconds; the next day, 6 minutes 56 seconds; and on August 13, 8 minutes 13.2 seconds. This time he did seven wide “orbes,” as the French described them. In landing that day Wilbur broke the left wing of his plane and repairs kept him from flying until August 21. He took time out on August 24 to attend an agricultural fair where reporters observed that he seemed much interested in pigs and cattle and, as one paper expressed it, “talked much more freely about them than about aviation.”

Two days after that first demonstration, on August 10, Wilbur made two more short flights, the first one a figure eight and the other three complete circles. He flew on August 11 for 3 minutes and 43 seconds; the next day, 6 minutes and 56 seconds; and on August 13, 8 minutes and 13.2 seconds. This time, he did seven wide “orbes,” as the French described them. When landing that day, Wilbur broke the left wing of his plane, and repairs kept him from flying until August 21. He took a break on August 24 to attend an agricultural fair, where reporters noted that he seemed very interested in pigs and cattle and, as one paper put it, “talked much more freely about them than about aviation.”

After those first few flights, the army officer in charge241 of the artillery testing grounds at Auvours let it be known that the military people at Paris would be proud to have Wilbur Wright’s further demonstrations carried on there. As the military field was larger than that at Hunaudières, Wilbur was glad to make the change. The Hunaudières hangar—which Wilbur persisted in calling the “shed”—was torn down and rebuilt within twenty-four hours at Auvours. As the two fields were only about ten miles apart, Wilbur could have flown the plane to the new location; but with so much at stake he was taking no chances. The plane was placed longitudinally on two wheels fastened behind Léon Bollée’s automobile and towed to the Auvours field without removing the wings. Within a month after setting up operations at Auvours, Wilbur was flying many times the distance between the two fields.

After those first few flights, the army officer in charge241 of the artillery testing grounds at Auvours announced that the military folks in Paris would be thrilled to have Wilbur Wright’s further demonstrations take place there. Since the military field was bigger than the one at Hunaudières, Wilbur was happy to make the switch. The Hunaudières hangar—which Wilbur insisted on calling the “shed”—was taken down and rebuilt in just twenty-four hours at Auvours. Because the two fields were only about ten miles apart, Wilbur could have flown the plane to the new location; but with so much at stake, he wasn't taking any chances. The plane was placed lengthwise on two wheels attached behind Léon Bollée’s automobile and towed to the Auvours field without taking off the wings. Within a month of starting operations at Auvours, Wilbur was flying many times the distance between the two fields.

All parts of France were now flooded with souvenir post cards bearing pictures of Wilbur or of his plane in flight. And the French people gave him all the hero-worship of which they were capable. There was talk of a public subscription for a testimonial to him. When the French ambassador to the United States reached New York a short time later he declared that Wilbur Wright was accepted as the biggest man in France. It wasn’t alone his achievements in the air that won the people, but also his modesty, decency, and intelligence. The French papers made enthusiastic comment on the fact that in conversation he seemed to be exceptionally well informed not only about scientific work, but also on art, literature, medicine, and affairs of the world.

All parts of France were now flooded with souvenir postcards featuring pictures of Wilbur or his plane in flight. The French people gave him all the hero-worship they could muster. There was talk of a public fundraiser to honor him. When the French ambassador to the United States arrived in New York shortly after, he announced that Wilbur Wright was regarded as the biggest man in France. It wasn’t just his achievements in the air that won people over, but also his humility, decency, and intelligence. The French newspapers enthusiastically commented on the fact that in conversation he seemed exceptionally well-informed not only about scientific work but also about art, literature, medicine, and global affairs.

Newspapermen liked Wilbur because he always made242 it plain that they were welcome. They probably liked him all the more because, as a joke, he usually put them at manual work, to fetch tools, or help drag the plane in and out of the hangar.

Newspaper guys liked Wilbur because he always made it clear that they were welcome. They probably appreciated him even more because, as a joke, he usually had them doing some manual labor, fetching tools, or helping to move the plane in and out of the hangar.

Those who had access to the hangar were impressed by the orderliness of the place. Wilbur’s canvas cot was hauled up by ropes toward the roof during the day, and the space where he slept was divided from another section of the building by a low partition made of wood from packing cases. Wilbur explained that one room was his bedroom, the other his dining-room. Another trait that appealed to the French was Wilbur’s punctuality at all appointments. No one ever had to wait even a minute on him.

Those who could get into the hangar were struck by how tidy it was. During the day, Wilbur’s canvas cot was hoisted up with ropes toward the ceiling, and his sleeping area was separated from another part of the building by a low wooden partition made from packing crates. Wilbur explained that one room was his bedroom and the other was his dining room. Another quality that impressed the French was Wilbur’s punctuality; no one ever had to wait even a minute for him.

Nothing Wilbur was overheard to say by French journalists seemed too trivial to be recorded. One day he said “fine” to an assistant, by way of commendation, and the next day a Paris paper explained that Wilbur meant “C’est beau.” “Boys, let’s fix these ropes” was promptly translated as “Allons, jeunes gens, allez disposer les cordes.”

Nothing Wilbur said was too insignificant to be noted by French reporters. One day he told an assistant “fine” as a compliment, and the next day a Paris newspaper interpreted it as “C’est beau.” His simple “Boys, let’s fix these ropes” was quickly translated as “Allons, jeunes gens, allez disposer les cordes.”

Wilbur was flooded with letters of all kinds. Some were from scientists seeking information, and hundreds came from women who desired to make his acquaintance. He tried his best to answer all sensible questions from scientists; the others went into the stove. He was equally considerate of scientific-minded people—including those who might be considered rivals in aviation—who came in person. To all who had real interest he patiently explained any detail of his machine. But he243 was capable of quiet sarcasm toward the ill-informed who started to enlighten him about aerodynamics.

Wilbur received a flood of letters of all kinds. Some were from scientists looking for information, and hundreds came from women wanting to get to know him. He did his best to respond to all the reasonable questions from scientists; the rest went into the stove. He was equally accommodating to scientifically-minded people—including those who might be seen as competitors in aviation—who visited him in person. To everyone genuinely interested, he patiently explained every detail of his machine. However, he could be quietly sarcastic toward those who were misinformed and tried to educate him about aerodynamics.

It now became the fashionable thing for Parisians to take a train down to Le Mans and drive from there to the Champ d’Auvours to see Wilbur fly. Amusing episodes grew out of that. Since the flights were not often announced in advance, those who made the sight-seeing trip had to take their chances. But some of the callers felt almost a personal affront if Wilbur made no flight on the day they happened to be there. One American society woman living in Paris was bitterly resentful when she was told that Monsieur Wright was taking a nap and therefore would not fly that afternoon. “The idea,” said she, petulantly, “of his being asleep when I came all the way down here to see him in the air!”

It became trendy for Parisians to take a train to Le Mans and then drive to the Champ d’Auvours to watch Wilbur fly. This led to some amusing situations. Since the flights weren’t usually announced in advance, those who made the trip had to roll the dice. However, some visitors felt almost personally insulted if Wilbur didn’t fly on the day they were there. One American socialite living in Paris was really upset when she found out that Monsieur Wright was taking a nap and wouldn’t be flying that afternoon. “Can you believe,” she said, annoyed, “that he’s asleep when I came all the way down here to see him fly!”

Cabmen at Le Mans found the sudden influx of visitors so profitable that they tried to make the most of it and encouraged people who had been disappointed to come again the next day. They would always say: “He is sure to fly tomorrow. We have it on good authority.”

Cab drivers in Le Mans saw the sudden arrival of visitors as a great opportunity, so they tried to take full advantage of it and urged people who had been let down to come back the next day. They would always say, “He’ll definitely take off tomorrow. We’ve heard it from reliable sources.”

So grateful to Wilbur were members of the “Le Mans-Auvours Aeroplane Bus Service” for the profitable trade he had created, that they wanted to give a banquet in his honor.

The members of the “Le Mans-Auvours Aeroplane Bus Service” were so grateful to Wilbur for the successful business he had built that they wanted to throw a banquet in his honor.

News of Wilbur’s flights at Le Mans naturally caused talk in England. Members of the Aeronautical Society of Great Britain, one after another, went to Le Mans in doubt about the flights being as wonderful as reported, but returned convinced that the age of practical flying-machines had come.

News of Wilbur's flights at Le Mans naturally sparked conversations in England. Members of the Aeronautical Society of Great Britain, one after another, traveled to Le Mans unsure if the flights were as amazing as reported, but returned convinced that the era of practical flying machines had arrived.

One of the first to go from England to investigate244 was Griffith Brewer, who had been making balloon ascensions since 1891. Half apologetically, lest he be thought over-credulous, he confided to an old associate of his in ballooning, Charles S. Rolls, founder of the Rolls-Royce motor car firm, that he was going to France to see Wilbur Wright fly. Rolls laughed and said he had just returned from seeing him fly.

One of the first people to leave England to check it out244 was Griffith Brewer, who had been making balloon flights since 1891. A bit apologetic, so he wouldn’t seem too gullible, he told an old friend from his ballooning days, Charles S. Rolls, the founder of the Rolls-Royce car company, that he was heading to France to watch Wilbur Wright fly. Rolls laughed and mentioned that he had just come back from watching him fly.

On his arrival at Le Mans, Brewer walked to the shed at the edge of the field. Opposite the shed, in the middle of the field, was Wilbur Wright tuning up his machine. As a crowd was about Wilbur, Brewer hesitated to add to it, but sat down by the shed to smoke his pipe. When a mechanic came from the machine over to the shed for a tool, Brewer handed him a calling card with the request that he give it to Wilbur Wright. Wilbur glanced at the card, nodded to Brewer, and went on with his work. There was no flight, but it was some time before Wilbur returned to the shed; and as he stayed inside for what seemed a long time, Brewer began to think there might be an indefinite wait. Then Wilbur came out, putting on his coat, and said: “Now, Mr. Brewer, we’ll go and have some dinner.”

On his arrival at Le Mans, Brewer walked to the shed at the edge of the field. Across from the shed, in the middle of the field, Wilbur Wright was getting his machine ready. Since a crowd had gathered around Wilbur, Brewer hesitated to join them and instead sat down by the shed to smoke his pipe. When a mechanic came over from the machine to grab a tool, Brewer handed him a business card with the request to give it to Wilbur Wright. Wilbur glanced at the card, nodded at Brewer, and continued with his work. There was no flight, but it took a while before Wilbur returned to the shed; as he stayed inside for what felt like a long time, Brewer began to think there might be a long wait ahead. Finally, Wilbur came out, putting on his coat, and said: “Now, Mr. Brewer, let’s go have some dinner.”

They went to Madame Pollet’s inn near by for a simple meal and Brewer, eager though he was to discuss aviation, wondered if the inventor might not appreciate a rest from the subject of flying. He therefore talked to him of affairs in America. Wilbur liked that, and they formed a friendship.

They went to Madame Pollet's inn nearby for a simple meal, and Brewer, although eager to talk about aviation, wondered if the inventor might want a break from the topic of flying. So, he discussed matters in America instead. Wilbur enjoyed that, and they developed a friendship.

THE OLD AND THE NEW IN TRANSPORTATION. Two views of the Wright plane in flight at Pau, France, in 1909.

On September 12, Wilbur was guest of honor at a dinner in Paris given by the Aéro Club of the Sarthe (the governmental department in which Le Mans was245 located). It was understood that he would not be expected to make a speech, but Baron d’Estournelles, member of the Senate from Le Mans, who presided, did nevertheless call upon him. Wilbur then, in justification of his unwillingness to say much, made a remark that became famous.

On September 12, Wilbur was the guest of honor at a dinner in Paris hosted by the Aéro Club of the Sarthe (the government department where Le Mans was located). It was expected that he wouldn’t have to give a speech, but Baron d’Estournelles, a senator from Le Mans who was in charge, still asked him to say a few words. Wilbur, trying to explain his hesitation to talk much, made a comment that became famous.

DEMONSTRATION AT PAU. Wilbur Wright explaining the plane’s mechanism to Alfonso XIII of Spain.

“I know of only one bird, the parrot, that talks,” he was quoted as saying, “and it can’t fly very high.”

“I only know one bird that talks—the parrot,” he was quoted as saying, “and it can’t fly very high.”

For the first time in France, Wilbur, on September 16, took up a passenger, a young French balloonist, Ernest Zens.

For the first time in France, Wilbur, on September 16, took a passenger, a young French balloonist, Ernest Zens.

Two days later, in the early morning of September 18, as he was about to make a flight, Wilbur got word about the tragic accident at Fort Myer the day before, when Lieutenant Selfridge was killed and Orville Wright injured, it was not yet known how seriously.

Two days later, on the morning of September 18, just as he was about to take a flight, Wilbur received news about the tragic accident at Fort Myer the day before, where Lieutenant Selfridge was killed and Orville Wright was injured, though it was still unclear how serious his injuries were.

Within a few hours cables brought word that Orville would recover, and Wilbur was able to fly again the next day. Two days later, on September 21, he flew about forty miles, in 1 hour 31 minutes 25.4 seconds. News of that proved to be better medicine for Orville, in Washington, than anything the attending physician could do.

Within a few hours, cables confirmed that Orville would recover, and Wilbur was able to fly again the next day. Two days later, on September 21, he flew about forty miles in 1 hour, 31 minutes, and 25.4 seconds. News of that turned out to be better medicine for Orville in Washington than anything the attending physician could provide.

Many passengers now made short flights with Wilbur. They included, on October 3, Mr. Dickin, of the Paris edition of the New York Herald, and Franz Reichel, of the Paris Figaro. Reichel was so enthusiastic over his flight of nearly an hour, that on landing he threw his arms about Wilbur.

Many passengers were now taking short flights with Wilbur. Among them, on October 3, were Mr. Dickin from the Paris edition of the New York Herald, and Franz Reichel from the Paris Figaro. Reichel was so excited about his flight of nearly an hour that when they landed, he threw his arms around Wilbur.

Léon Bollée had his first flight on October 5, and the next day Arnold Fordyce flew with Wilbur for 1 hour246 4 minutes and 26 seconds, the longest flight yet made in an airplane with a passenger.

Léon Bollée had his first flight on October 5, and the next day Arnold Fordyce flew with Wilbur for 1 hour246 4 minutes and 26 seconds, the longest flight to date in an airplane with a passenger.

Now that Wilbur was carrying much weight and on longer flights, the Paris edition of the New York Herald became impressed with future possibilities for carrying mail by plane. It predicted that the time might come when there would be special stamps for “aeroplane delivery.”

Now that Wilbur was carrying a lot of weight and on longer flights, the Paris edition of the New York Herald became excited about future possibilities for delivering mail by plane. It suggested that there might come a time when there would be special stamps for "airplane delivery."

A witness to several of these flights in early October was Major B. F. S. Baden-Powell, President of the Aeronautical Society of Great Britain (and a brother of the founder of the Boy Scouts). He was so impressed by what he saw that he sounded a warning to his fellow countrymen. Major Baden-Powell was quoted as follows in the Paris edition of the New York Herald on October 6, 1908:

A witness to several of these flights in early October was Major B. F. S. Baden-Powell, President of the Aeronautical Society of Great Britain (and a brother of the founder of the Boy Scouts). He was so impressed by what he saw that he warned his fellow countrymen. Major Baden-Powell was quoted as follows in the Paris edition of the New York Herald on October 6, 1908:

If only some of our people in England could see or imagine what Mr. Wright is now doing I am certain it would give them a terrible shock. A conquest of the air by any nation means more than the average man is willing to admit or even think about. That Wilbur Wright is in possession of a power which controls the fate of nations is beyond dispute.

If only some of our people in England could see or imagine what Mr. Wright is doing right now, I’m sure it would shock them. A nation conquering the air means more than most people are willing to acknowledge or even consider. That Wilbur Wright has control over a power that can shape the fate of nations is undeniable.

Hart O. Berg, on October 7, went for a flight, his first, lasting three minutes and twenty-four seconds. Immediately afterward Wilbur took Mrs. Berg for a flight, of two minutes, three seconds, the first ever made anywhere in the world by a woman. (One or two women were reported to have been in planes that made short hops, but Mrs. Berg was certainly the first woman to participate in a real flight.)

Hart O. Berg went for his first flight on October 7, which lasted three minutes and twenty-four seconds. Right after that, Wilbur took Mrs. Berg for a flight that lasted two minutes and three seconds, making her the first woman in the world to fly. (While there were reports of a couple of women taking short hops in planes, Mrs. Berg was definitely the first woman to take part in a proper flight.)

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Berg tied a rope about the lower part of his wife’s skirt to keep it from blowing. A Paris dressmaker who was among the spectators noted that Mrs. Berg could hardly walk, after landing, with that rope above her ankles. There, thought the couturière, was a suggestion for something fashionable. A costume with skirt thus drawn between the ankles and the knees to make natural locomotion difficult should appeal to any customers who happened to be both stupid and rich. Thus was born the “hobble skirt” which, for a short time, was considered “smart.”

Berg tied a rope around the lower part of his wife's skirt to keep it from blowing in the wind. A Paris dressmaker who was watching noticed that Mrs. Berg could barely walk after landing with that rope above her ankles. There, thought the couturière, was an idea for something fashionable. A design with the skirt pulled tight between the ankles and the knees to hinder natural movement should attract any customers who happened to be both foolish and wealthy. Thus, the “hobble skirt” was born, which, for a brief period, was considered “chic.”

The next day, October 8, her royal highness, Margherita, the dowager queen of Italy, who was touring France, came to see a flight.

The next day, October 8, her royal highness, Margherita, the dowager queen of Italy, who was touring France, came to see a flight.

“You have let me witness the most astonishing spectacle I have ever seen,” was her comment to Wilbur Wright.

“You have let me witness the most amazing sight I have ever seen,” she told Wilbur Wright.

On that same October 8, Griffith Brewer, making his second visit to Le Mans, won the distinction of being the first Englishman ever to fly. He was followed almost immediately by three other British Aeronautical Society members, C. S. Rolls, F. H. Butler, and Major Baden-Powell.

On October 8, Griffith Brewer, during his second trip to Le Mans, became the first Englishman to fly. He was quickly followed by three other members of the British Aeronautical Society: C. S. Rolls, F. H. Butler, and Major Baden-Powell.

One of the Englishmen remarked: “How decent it is of Wilbur Wright never to accept a fee for any of these flights, when there are scores of persons who would gladly pay hundreds of pounds for the privilege.”

One of the Englishmen said, “How generous of Wilbur Wright to never accept payment for any of these flights, especially when there are so many people who would happily pay hundreds of pounds for the chance.”

Wilbur continued until the end of the year to take up passengers at Auvours. Among them, on October 10, was M. Painlevé, of the French Institute. As they were taking off, M. Painlevé gaily waved his hand at the248 crowd and in so doing accidentally pulled a rope overhead that Wilbur used for stopping the engine. After another start, the flight lasted one hour, nine minutes, forty-five seconds, and covered forty-six miles, a world record for both duration and distance for an airplane carrying two persons. Two other women besides Mrs. Berg had short flights—Mesdames Léon Bollée and Lazare Weiller. A passenger on October 24 was Dr. Pirelli, leading tire manufacturer in Italy. Later, in November, F. S. Lahm, one of the first in Europe to believe the Wrights had flown, had his first ride in a plane. Among the distinguished people who made passenger flights were two destined to die by assassins’ bullets: Paul Doumer, member of the French parliament, afterward President of France; and Louis Barthou, Minister of Public Works and Aerial Communications, afterward Premier.

Wilbur continued to take on passengers at Auvours until the end of the year. Among them, on October 10, was M. Painlevé from the French Institute. As they were taking off, M. Painlevé cheerfully waved at the248 crowd and accidentally pulled an overhead rope that Wilbur used to stop the engine. After another takeoff, the flight lasted one hour, nine minutes, and forty-five seconds, covering forty-six miles—a world record for both duration and distance for an airplane carrying two people. Two other women, besides Mrs. Berg, took short flights—Mesdames Léon Bollée and Lazare Weiller. A passenger on October 24 was Dr. Pirelli, a leading tire manufacturer in Italy. Later, in November, F. S. Lahm, one of the first in Europe who believed the Wright brothers had flown, took his first ride in a plane. Among the notable people who made passenger flights were two who would later be murdered: Paul Doumer, a member of the French parliament and later President of France; and Louis Barthou, Minister of Public Works and Aerial Communications, later Premier.

Under the terms of the contract between the Wrights and the newly formed French company, one of the Wright brothers was to train three pilots. Wilbur began this training at Auvours. The students were Count Charles de Lambert, Paul Tissandier, and Captain Lucas de Girardville. Both Tissandier and de Lambert had made flights as passengers on September 28, but did not begin their training until later. Captain Lucas de Girardville went up as a passenger for the first time on October 12. The first to receive a lesson at piloting was Count de Lambert on October 28.

Under the terms of the contract between the Wrights and the newly established French company, one of the Wright brothers was supposed to train three pilots. Wilbur started this training at Auvours. The students were Count Charles de Lambert, Paul Tissandier, and Captain Lucas de Girardville. Both Tissandier and de Lambert had flown as passengers on September 28 but didn’t start their training until later. Captain Lucas de Girardville flew as a passenger for the first time on October 12. The first to get a piloting lesson was Count de Lambert on October 28.

The Aéro Club of France had offered a prize of 2,500 francs for an altitude of twenty-five meters. But there was a “catch” to that offer. A little clique in the Aéro249 Club, a bit over-chauvinistic, wanted a native experimenter to win, and that was why the altitude to be attained was fairly low. It was stipulated that anyone competing for the prize must start without use of derrick or catapult. The French experimenters had wheels on their machines and could get as long a start as necessary before leaving the ground. But the Wright machine, designed for the rough, sandy ground at Kitty Hawk, and the somewhat bumpy Huffman field, still had skids instead of wheels. Thus the rules for the contest seemed to be aimed to prevent Wilbur Wright from winning the prize. Members of the Aéro Club of the Sarthe thought their compatriots in the Aéro Club of France were being unsportsmanlike, and they offered a prize of 1,000 francs for an altitude record of thirty meters. Wilbur won it on November 13. In doing so he went three times as high as required, reaching an altitude of ninety meters. Then Wilbur decided that he might as well win the prize of the Aéro Club of France, and do so on their own terms. He arranged for a longer starting track than usual, and, five days after taking the prize for thirty meters, he started without the use of derrick or catapult and won the prize for twenty-five meters. To the delight of his friends in the Aéro Club of the Sarthe, he purposely did not throw in much altitude for good measure and went only high enough to clear safely the captive balloon that showed the height required.

The Aéro Club of France had offered a prize of 2,500 francs for reaching an altitude of twenty-five meters. But there was a “catch” to that offer. A small group within the Aéro Club, a bit overly nationalist, wanted a local experimenter to win, which is why the required altitude was set relatively low. It was stated that anyone competing for the prize must take off without using a derrick or catapult. The French experimenters had wheels on their machines and could get as long a run as needed before leaving the ground. However, the Wright machine, designed for the rough, sandy terrain of Kitty Hawk and the somewhat bumpy Huffman field, still had skids instead of wheels. Therefore, the contest rules seemed aimed at preventing Wilbur Wright from winning the prize. Members of the Aéro Club of the Sarthe thought their fellow members in the Aéro Club of France were being unsportsmanlike and offered a prize of 1,000 francs for an altitude record of thirty meters. Wilbur won it on November 13, climbing three times the required height and reaching ninety meters. Then Wilbur decided to go for the prize from the Aéro Club of France as well, and to do it on their terms. He arranged for a longer starting track than usual, and five days after winning the thirty-meter prize, he took off without using a derrick or catapult and won the twenty-five-meter prize. To the delight of his friends in the Aéro Club of the Sarthe, he intentionally didn’t go much higher than necessary and only climbed enough to safely clear the captive balloon that marked the required height.

On December 16, Wilbur astounded the spectators by shutting off the motor at an altitude of about 200 feet and volplaning slowly down. And on December 18,250 he flew for 1 hour 54 minutes 53.4 seconds. Later that same day he won another prize offered by the Aéro Club of the Sarthe for an altitude of a hundred meters. Wilbur went ten meters higher than required. This was a new world’s record for altitude. Then on December 31, the last day he ever flew at Auvours, he made what was then an almost incredible record of staying continuously in the air 2 hours 20 minutes 23.2 seconds. For this feat he won the Michelin award of $4,000, or 20,000 francs.

On December 16, Wilbur amazed the spectators by turning off the motor at about 200 feet and gliding slowly down. Then, on December 18,250 he flew for 1 hour, 54 minutes, and 53.4 seconds. Later that same day, he won another prize offered by the Aéro Club of the Sarthe for reaching an altitude of a hundred meters. Wilbur went ten meters higher than necessary. This set a new world record for altitude. Finally, on December 31, the last day he ever flew at Auvours, he achieved what was then an almost unbelievable record of staying in the air continuously for 2 hours, 20 minutes, and 23.2 seconds. For this achievement, he won the Michelin award of $4,000, or 20,000 francs.

As the weather at Le Mans was no longer ideal for flying, it was necessary to seek a warmer climate, and at the suggestion of Paul Tissandier, Wilbur decided to go to Pau, a beautiful winter resort city of 35,000, at the edge of the Pyrenees. The city of Pau provided a field and a hangar.13

As the weather in Le Mans was no longer suitable for flying, it became necessary to find a warmer climate. At Paul Tissandier's suggestion, Wilbur decided to go to Pau, a lovely winter resort city with a population of 35,000, located at the foot of the Pyrenees. Pau offered a field and a hangar.13

At about the same time, Orville Wright, now rapidly recuperating from his injuries at Fort Myer, arrived in Paris with their sister, Katharine, for a reunion with Wilbur. Then Wilbur went on down to Pau, and his brother and sister joined him there a week or two later. En route to Pau, their train met with an accident near the town of Dax, in which two persons were killed. The Wrights escaped injury, but Orville was a bit startled for another reason. When the crash came, his mattress tipped up on one side at the same time that his watch, pocketbook and other articles slid off a stand or shelf beside the bed. His valuables thus got themselves hid beneath the mattress and, until he chanced to find them, it looked as if he had been robbed.

At around the same time, Orville Wright, who was quickly recovering from his injuries at Fort Myer, arrived in Paris with their sister, Katharine, for a reunion with Wilbur. Wilbur then traveled down to Pau, and his brother and sister joined him there a week or two later. On their way to Pau, their train had an accident near the town of Dax, resulting in the deaths of two people. The Wrights were unharmed, but Orville was a bit startled for another reason. When the crash happened, his mattress tipped up on one side while his watch, wallet, and other belongings slid off a stand next to the bed. His valuables got hidden under the mattress, and until he happened to find them, it looked like he had been robbed.

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As at Le Mans, Wilbur lived at the hangar, where he had a French cook the hospitable Mayor de Lassence, of Pau, had selected. His brother and sister lived at the Hotel Gassion, not far from the famous old château where Henry IV was born, and within a short stroll from the Place near the center of the city that affords what Lamartine has called the finest land view in all the world. The Wrights were not long in discovering that life here should be ideal. Wilbur’s French cook proved to be competent enough at preparing regional and other choice dishes—though Katharine Wright did not think he had quite the best technique with a broom for keeping the quarters clean. A London newspaper photographer gave Orville a photograph of his sister demonstrating to that Frenchman how to handle a broom.

As at Le Mans, Wilbur lived at the hangar, where he had a French cook selected by the hospitable Mayor de Lassence of Pau. His brother and sister stayed at the Hotel Gassion, not far from the famous old château where Henry IV was born, and just a short walk from the central square that offers what Lamartine called the finest landscape view in the entire world. The Wrights soon realized that life here could be ideal. Wilbur’s French cook was skilled at preparing local and other fine dishes—although Katharine Wright thought he wasn’t the best at using a broom to keep the place tidy. A photographer from a London newspaper gave Orville a picture of his sister showing that Frenchman how to use a broom.

By coming to Pau the Wrights had unintentionally played a joke on James Gordon Bennett, owner of the New York Herald and Paris Herald. A few years previously, when Bennett was spending the winter there, he had a tally-ho party and someone in the party had attracted the attention of the police. The episode was reported in local newspapers. Bennett was so indignant that he laid down a rule for both his papers to say as little as possible about Pau. But now, with Wilbur Wright flying there, the town could hardly be ignored. Pau date lines were again frequent in the Bennett papers.

By coming to Pau, the Wrights had unintentionally pulled a fast one on James Gordon Bennett, owner of the New York Herald and Paris Herald. A few years earlier, when Bennett was spending the winter there, he had a tally-ho party, and someone at the party caught the attention of the police. The incident was reported in the local newspapers. Bennett was so outraged that he made a rule for both of his papers to say as little as possible about Pau. But now, with Wilbur Wright flying there, the town couldn't be overlooked. Pau date lines were once again common in the Bennett papers.

Wilbur did not attempt any new records at Pau, but devoted most of his time to teaching the young pilots for the French Wright company.

Wilbur didn't try to set any new records at Pau, but spent most of his time teaching the young pilots at the French Wright company.

Count Charles de Lambert continued his training, and his wife, almost equally enthusiastic over aviation, made252 a passenger flight. Another woman to make a flight at Pau was Katharine Wright herself. It was her first trip in a plane, though, as she laughingly remarked, she had heard plenty about aviation.

Count Charles de Lambert kept up with his training, and his wife, just as excited about aviation, took a passenger flight. Another woman who flew at Pau was Katharine Wright herself. It was her first time in a plane, although, as she joked, she had heard a lot about aviation.

An American multi-millionaire from Philadelphia, spending some time at Pau, announced, with the self-confidence money sometimes gives, that he intended to make a flight with Wilbur. When told that Wilbur was not taking up any passengers, he replied: “Oh, I daresay that can be arranged.”

An American millionaire from Philadelphia, spending some time in Pau, confidently announced that he planned to take a flight with Wilbur. When he was informed that Wilbur wasn't taking any passengers, he replied, "Oh, I'm sure that can be arranged."

“I’d like to be around when you do the arranging, just to see how it’s done,” observed Lord Northcliffe, owner of the London Daily Mail, who had recently arrived and become acquainted with the Wrights. The American went away without having had his ride.

“I’d like to be around when you do the arranging, just to see how it’s done,” said Lord Northcliffe, owner of the London Daily Mail, who had recently arrived and gotten to know the Wrights. The American left without having had his ride.

In February, King Alfonso of Spain came to Pau with his entourage, and the Wrights were formally presented to him at the field. “An honor and a pleasure to meet you,” said the king.

In February, King Alfonso of Spain arrived in Pau with his entourage, and the Wrights were formally introduced to him at the field. “It's an honor and a pleasure to meet you,” said the king.

Alfonso showed more boyish enthusiasm about the plane than almost anyone. He was eager to fly, but both his queen and his cabinet had exacted a promise that he would not. However, he climbed aboard the plane and sat there for a long time fascinated while Wilbur painstakingly explained every detail.

Alfonso showed more youthful excitement about the plane than almost anyone else. He was eager to fly, but both his queen and his cabinet had insisted that he wouldn't. Still, he climbed aboard the plane and sat there for a long time, captivated while Wilbur carefully explained every detail.

A little later, on March 17, still another king arrived. Edward VII of England came by automobile with his suite from near-by Biarritz. The presentation of the brothers and their sister was made at the field and Edward showed his customary graciousness. He did not seek any technical details about the machine, but was253 much interested in seeing the flights themselves and in meeting the Wrights.

A little later, on March 17, another king showed up. Edward VII of England arrived by car with his entourage from nearby Biarritz. The introduction of the brothers and their sister took place at the field, and Edward displayed his usual kindness. He didn’t ask for any technical details about the machine but was really interested in watching the flights and meeting the Wrights.

It was during the stay of King Edward that Miss Katharine Wright made her second trip in an airplane.

It was during King Edward's visit that Miss Katharine Wright took her second airplane trip.

Other famous personages continued to come to Pau, among them Lord Arthur Balfour, former Prime Minister of England. Sometimes when Wilbur was preparing for a flight, visitors would pull on the rope that raised the weights on the launching derrick. Balfour insisted that he must not be denied this privilege of “taking part in a miracle” and did his share of yanking at the rope. Another man who shared in handling the rope that day was a young English duke.

Other famous figures kept coming to Pau, including Lord Arthur Balfour, the former Prime Minister of England. Sometimes, while Wilbur was getting ready for a flight, visitors would pull on the rope that lifted the weights on the launching derrick. Balfour insisted that he shouldn’t be denied this chance to “take part in a miracle,” so he joined in pulling the rope. Another person who helped with the rope that day was a young English duke.

“I’m so glad that young man is helping with the rope,” said Lord Northcliffe to Orville Wright, with a motion of his head toward the duke, “for I’m sure it is the only useful thing he has ever done in his life.”

“I’m so glad that guy is helping with the rope,” said Lord Northcliffe to Orville Wright, nodding toward the duke, “because I’m pretty sure it’s the only useful thing he’s ever done in his life.”

Northcliffe, after his meeting with the Wrights at Pau, became one of their most enthusiastic supporters in England.

Northcliffe, after meeting the Wrights in Pau, became one of their biggest supporters in England.

Long afterward, he publicly made this comment:

Long after that, he publicly said this:

“I never knew more simple, unaffected people than Wilbur, Orville, and Katharine. After the Wrights had been in Europe a few weeks they became world heroes, and when they went to Pau their demonstrations were visited by thousands of people from all parts of Europe—by kings and lesser men, but I don’t think the excitement and interest produced by their extraordinary feat had any effect on them at all.”

“I never knew more genuine, down-to-earth people than Wilbur, Orville, and Katharine. After the Wrights spent a few weeks in Europe, they became global icons, and when they went to Pau, their demonstrations attracted thousands from all over Europe—ranging from kings to ordinary folks—but I don’t think the excitement and interest generated by their remarkable achievement affected them at all.”


Shortly after they were established at Pau, the Wrights received a call from a German, Captain Alfred Hildebrandt. This was not the first time he had tried to see them. He had stopped in Dayton, on his way homeward after attending the international balloon races at St. Louis, in 1907; but on reaching Dayton he learned that the Wrights were in Europe. Captain Hildebrandt came to Pau on behalf of a newspaper publisher. His principal was Herr Scherl, owner of the Lokal Anzeiger, a leading paper in Berlin. Scherl thought it would be a great stroke of advertising for his paper if he could arrange for a big public demonstration of a Wright machine, with the general public invited to be the paper’s guests. It was arranged that one of the Wrights should make a series of flights at Berlin, later that year, for a substantial fee. The brothers later decided that the Berlin flights should be made by Orville.

Soon after they settled in Pau, the Wrights received a call from a German named Captain Alfred Hildebrandt. This wasn’t the first time he had tried to meet them. He had stopped in Dayton on his way home after attending the international balloon races in St. Louis in 1907; however, when he arrived in Dayton, he found out that the Wrights were in Europe. Captain Hildebrandt came to Pau on behalf of a newspaper publisher. His boss was Herr Scherl, owner of the Lokal Anzeiger, a prominent newspaper in Berlin. Scherl believed it would be a fantastic advertising opportunity for his paper if he could organize a large public demonstration of a Wright aircraft, inviting the general public as guests of the paper. It was arranged for one of the Wrights to perform a series of flights in Berlin later that year for a significant fee. The brothers eventually decided that Orville would take the flights in Berlin.

A move had been started in Italy to have demonstrations of the Wright plane in Rome. Dr. Pirelli, Italian tire manufacturer, who had flown with Wilbur Wright at Le Mans, was believed to have made the first suggestion that led to organizing an aviation club at Rome to buy a Wright plane. This “club” was supposed to be backed at least partly by the Italian Government, and255 the arrangement with the Wrights provided for the training of two lieutenants, one from the Navy, the other from the Army.

A movement had begun in Italy to organize demonstrations of the Wright plane in Rome. Dr. Pirelli, an Italian tire manufacturer who had flown with Wilbur Wright in Le Mans, was thought to be the first to suggest establishing an aviation club in Rome to purchase a Wright plane. This “club” was meant to be supported at least in part by the Italian Government, and the agreement with the Wrights included training for two lieutenants, one from the Navy and the other from the Army.255

Parts and material for six new planes had already been shipped to Europe from Dayton, and the parts for one of these were sent to Pau, where they were built into a complete machine. The machine was then taken down in sections and shipped to Rome. (The one used in the French flights became the personal property of Lazare Weiller, organizer of the French Wright company, and later it went to a museum in Paris.)

Parts and materials for six new planes had already been shipped to Europe from Dayton, and the parts for one of these were sent to Pau, where they were assembled into a complete aircraft. The aircraft was then disassembled into sections and shipped to Rome. (The one used in the French flights became the personal property of Lazare Weiller, who organized the French Wright company, and later it was donated to a museum in Paris.)

In April the Wrights returned from Pau to Paris, and after a brief stay there Wilbur went to Rome. He was joined there later by Orville and Katharine, who went to a hotel opposite the Barberini Palace. Count and Countess di Celleri, of the Italian nobility, had a cottage adjoining their villa near the flying field at Centocelle, and they offered it to Wilbur. Countess di Celleri later felt more than repaid when she had a passenger flight in the Wright plane.

In April, the Wrights came back from Pau to Paris, and after a short stay there, Wilbur headed to Rome. He was later joined by Orville and Katharine, who stayed at a hotel across from the Barberini Palace. Count and Countess di Celleri, from the Italian nobility, had a cottage next to their villa near the flying field at Centocelle, and they offered it to Wilbur. The Countess di Celleri felt it was more than worth it when she got to take a passenger flight in the Wright plane.

When the machine shipped from Pau in sections arrived in Rome it was reassembled in an automobile factory, just outside the city limits, on the Flaminian Way. It was then moved across the city on a truck drawn by a magnificent team of gray horses to a military field in Centocelle. As the strange-looking machine was carried through Roman streets past ancient ruins, it is doubtful if amazed beholders had ever seen a greater contrast between old and new.

When the machine that shipped in parts from Pau arrived in Rome, it was put back together in an auto factory just outside the city limits, on Flaminian Way. It was then transported across the city on a truck pulled by a stunning team of gray horses to a military field in Centocelle. As the unusual machine made its way through Roman streets past ancient ruins, it’s hard to believe amazed onlookers had ever witnessed such a striking contrast between the old and the new.

Almost immediately after his arrival, Wilbur began the training of the Italian flyers, naval Lieutenant Calderara256 and Lieutenant Savoia, of the army engineering corps. (Calderara was afterward the air attaché at the Italian Embassy in Washington; and Lieutenant Savoia became the head of the well-known Italian aviation company of that name.)

Almost immediately after he arrived, Wilbur started training the Italian pilots, Navy Lieutenant Calderara256 and Lieutenant Savoia from the army engineering corps. (Calderara later became the air attaché at the Italian Embassy in Washington, and Lieutenant Savoia went on to lead the well-known Italian aviation company named after him.)

King Victor Emmanuel came to witness flights. As he strolled about the field with a folding camera suspended from his shoulder, he might have been mistaken for just one more tourist. Other sightseers who came to the field were the elder J. P. Morgan and the famous railroader, James J. Hill. Among those who made flights with Wilbur were Lloyd Griscom, the American Ambassador, and Sonnino, former Premier of Italy. Soon after that, for the first time, an operator took a motion picture from an airplane in flight.

King Victor Emmanuel came to watch the flights. As he walked around the field with a folding camera hanging from his shoulder, he could have been mistaken for just another tourist. Other visitors at the field included the older J. P. Morgan and the well-known railroader, James J. Hill. Among those who flew with Wilbur were Lloyd Griscom, the American Ambassador, and Sonnino, the former Premier of Italy. Shortly after that, for the first time, an operator filmed a motion picture from an airplane in flight.

While at Rome the Wrights established friendship with another German, Captain von Kehler, whom they had already met in Berlin, and he played an important part in steps toward forming a Wright company in Germany.

While in Rome, the Wrights became friends with another German, Captain von Kehler, whom they had already met in Berlin. He played a significant role in the efforts to establish a Wright company in Germany.

Captain von Kehler was managing director of the Studien Gesellschaft, an organization for the study of aeronautics, that had been formed after a meeting between certain outstanding German industrialists and the Kaiser, back in 1906. The Kaiser had called the representatives of the Krupps and other powerful industrialists to Potsdam to give them a big banquet at the close of which he said he thought Germany should be looking into the possibilities of the development of the airship (lighter-than-air). Just what should be done he did not pretend to know. That problem, he said, he would257 turn over to them. They knew what he meant. They, as a patriotic duty, must provide money for research and experimentation in the lighter-than-air field or else lose standing with their Kaiser. Thus did the Studien Gesellschaft come into being. The organization began experiments by building a dirigible known as the Parseval, named for its designer, Major Parseval. The Parseval turned out to be an expensive experiment. At the end of two years the subscribed funds were nearly exhausted and the project far from completion. The subscribers began to fear another invitation to dinner. Just at this time they began to hear reports about the aeroplane flights of the Wrights in France, and they became much interested. It occurred to them that experiments with the new flying-machine would perhaps be less expensive than experiments with a dirigible, and that prospects for the aeroplane might be greater than for the dirigible.

Captain von Kehler was the managing director of the Studien Gesellschaft, an organization dedicated to the study of aeronautics, which was established after a meeting between some prominent German industrialists and the Kaiser in 1906. The Kaiser had invited representatives from Krupp and other influential industrialists to Potsdam for a grand banquet, at the end of which he expressed that Germany should explore the possibilities of developing airships (lighter-than-air). He didn’t claim to know what needed to be done, saying that he would leave that challenge to them. They understood what he meant: as a patriotic duty, they needed to fund research and experimentation in the lighter-than-air sector or risk losing favor with their Kaiser. This is how the Studien Gesellschaft was formed. The organization started experiments by constructing a dirigible called the Parseval, named after its designer, Major Parseval. The Parseval turned out to be a costly endeavor. After two years, the funds raised were nearly depleted, and the project was far from finished. The subscribers began to worry about potentially receiving another dinner invitation. Around this time, they started hearing about the Wright brothers' airplane flights in France, and their interest grew. They realized that experiments with the new flying machine might be less expensive than those with a dirigible and that the airplane might have better prospects than the dirigible.

Captain von Kehler went to Rome to talk with the Wrights. He told them that some of the wealthy men in the Studien Gesellschaft would like to form a German Wright company. Before he left Rome, a preliminary contract was signed. Its terms provided that the brothers should receive cash, a block of stock in the company, and ten per cent royalty on all planes sold. The final contract was closed in August, 1909.

Captain von Kehler went to Rome to meet with the Wright brothers. He informed them that some wealthy members of the Studien Gesellschaft were interested in creating a German Wright company. Before leaving Rome, they signed a preliminary contract. The terms stated that the brothers would receive cash, a block of stock in the company, and a ten percent royalty on all planes sold. The final contract was finalized in August 1909.

After leaving Rome the Wrights made a brief stay in Paris and went to Le Mans to receive a bronze art piece presented by the Aéro Club of the Sarthe. The work in bronze, by Louis Carvin, showed the Wright brothers at the edge of a chasm gazing upon an eagle in flight.258 Above them was a winged figure—the spirit of aviation.

After leaving Rome, the Wrights had a short stop in Paris and then headed to Le Mans to receive a bronze artwork presented by the Aéro Club of the Sarthe. The bronze piece, created by Louis Carvin, depicted the Wright brothers at the edge of a chasm watching an eagle in flight. 258 Above them was a winged figure—the spirit of aviation.

From France the Wrights went to London. There they received gold medals from the Aeronautical Society of Great Britain and from the Aero Club of the United Kingdom at formal banquets. Before going to these dinners Griffith Brewer was describing to Wilbur some of the people he would meet. Of one man he said: “You’ll readily recognize him, as he is the ugliest man in the Aeronautical Society.” To which Wilbur replied: “He’ll lose that distinction on this occasion, because now there will be a pair of us.”

From France, the Wright brothers traveled to London. There, they were awarded gold medals from the Aeronautical Society of Great Britain and the Aero Club of the United Kingdom at formal banquets. Before attending these dinners, Griffith Brewer was telling Wilbur about some of the people he would encounter. Of one man, he remarked, “You’ll easily recognize him; he’s the ugliest man in the Aeronautical Society.” To this, Wilbur replied, “He’ll lose that title this time, because now there will be two of us.”

On their arrival in New York the Wrights attended a luncheon in their honor given by the Aero Club of America. The Aero Club had awarded medals to the Wrights and these were formally presented a month later by President Taft at the White House.

On their arrival in New York, the Wrights attended a luncheon in their honor hosted by the Aero Club of America. The Aero Club had awarded medals to the Wrights, and these were officially presented a month later by President Taft at the White House.

After an absence of many months, the Wrights arrived in Dayton early in May. Five weeks later the city had a great celebration in their honor. The home town had now recognized the Wrights’ importance. This “home coming” for the Wrights lasted two days, June 17 and 18.

After being away for several months, the Wrights returned to Dayton at the beginning of May. Five weeks later, the city held a huge celebration in their honor. Their hometown had finally acknowledged the Wrights' significance. This "homecoming" for the Wrights took place over two days, June 17 and 18.

At 9 o’clock on that morning of June 17, they heard a deafening sound. It did not at once occur to them what it was. Every factory whistle in Dayton was blowing and every bell ringing—all in their honor. This continued for ten minutes. Bands were playing and cannons booming. At 10 o’clock the brothers rode in a carriage, escorted by bands, to the opening events. Ed Sines, boyhood chum of Orville, and Ed Ellis, long a friend of Wilbur, were in the carriage with them. Sines259 and Ellis, as a practical joke, gleefully shook hands, as if they were the heroes, with all who tried to greet the Wrights along the route, and few knew the difference.

At 9 o'clock on the morning of June 17, they heard a loud noise. It didn’t immediately register what it was. Every factory whistle in Dayton was blaring and every bell was ringing—all in their honor. This went on for ten minutes. Bands played, and cannons fired. At 10 o'clock, the brothers rode in a carriage, accompanied by bands, to the opening events. Ed Sines, Orville's childhood friend, and Ed Ellis, a long-time friend of Wilbur, were in the carriage with them. Sines and Ellis, as a prank, happily shook hands with everyone who tried to greet the Wrights along the route, and few people noticed the difference.

After reviewing a parade in their honor that afternoon, the Wrights returned to their shop. That night they had opportunity to see a display of fireworks that included their own profiles, eight feet high, entwined with an American flag.

After watching a parade held in their honor that afternoon, the Wrights went back to their workshop. That night, they had the chance to see a fireworks display featuring their own profiles, eight feet tall, intertwined with the American flag.

During these two days, practically all business in Dayton was suspended—except the sale of souvenir postal cards showing the Huffman pasture, the Hawthorne Street home, the flying field at Le Mans, France, and the parade ground at Fort Myer.

During these two days, almost all business in Dayton was on hold—except for the sale of souvenir postcards featuring the Huffman pasture, the Hawthorne Street house, the airfield at Le Mans, France, and the parade ground at Fort Myer.

On the second day, the inventors’ father, Bishop Wright, gave the invocation preceding the presentation of medals to his sons. One medal that had been ordered by act of Congress was presented by General James Allen, chief signal officer of the Army; another, by the Ohio legislature, was presented by Governor Harmon; and a third from the city of Dayton was presented by the Mayor. The Wrights were alongside of 2,500 school children, dressed in red, white and blue, to represent an immense American flag. Patriotic fervor ran high.

On the second day, the Wrights' father, Bishop Wright, gave the opening speech before the medal ceremony for his sons. One medal, ordered by an act of Congress, was presented by General James Allen, the chief signal officer of the Army; another medal from the Ohio legislature was handed out by Governor Harmon; and a third from the city of Dayton was awarded by the Mayor. The Wrights stood alongside 2,500 schoolchildren, dressed in red, white, and blue to represent a massive American flag. The atmosphere was filled with patriotic excitement.

The home folk knew now that the Wrights could fly; they knew, too, that international fame had not changed them. They were the same unassuming pair they had always been.

The hometown folks now knew that the Wrights could fly; they also understood that international fame hadn't changed them. They were still the same unpretentious couple they had always been.

Before the celebration was quite over, Wilbur and Orville took a train to Washington. The time for completing those Government trials at Fort Myer was approaching and there was much to be done.

Before the celebration was nearly over, Wilbur and Orville took a train to Washington. The deadline for finishing those government trials at Fort Myer was coming up, and there was a lot to be done.

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260

Orville made his first flight on June 28, and finished on July 30. One of the most memorable of the flights in this series was on that final day when Orville, with an Army officer, Lieutenant Benjamin D. Foulois, for passenger, made the first cross-country trip yet made in an airplane, a total distance of about ten miles to Alexandria and return—without any suitable landing spots if trouble had occurred. This was the speed test. The machine now used was capable of about four miles an hour greater speed than the one in the tests the previous year. The turning point in Alexandria was at Shuter’s Hill, where a Masonic temple now stands. A captive balloon floated above the hill, and a telegraph line had been run to the top of the hill where an operator was stationed to give a signal when Orville had passed that point. But a strong wind that day blew down the telegraph line and also kept the balloon so close to the ground that Orville could not see the turning point in advance and covered more than the required distance. As the plane passed out of sight for a time on the return trip, the crowd feared the worst; but when it reappeared, headed back toward the parade ground, the honking of automobile horns and excited cheering indicated that everyone knew they had all seen an extraordinary event. The time for the ten miles was fourteen minutes, or just under forty-three miles an hour. Thus the Wrights got a bonus of $5,000 more than the basic price agreed upon—ten per cent for each complete mile per hour more than forty—and they received $30,000 for the machine.

Orville made his first flight on June 28 and wrapped it up on July 30. One of the most memorable flights during this time happened on that final day when Orville, along with Army officer Lieutenant Benjamin D. Foulois as a passenger, completed the first cross-country trip ever made by an airplane, covering a total distance of about ten miles to Alexandria and back—without any landing spots available in case something went wrong. This was the speed test. The aircraft used was capable of about four miles an hour faster than the one used in tests the previous year. The turning point in Alexandria was at Shuter’s Hill, where a Masonic temple now stands. A captive balloon floated above the hill, and a telegraph line was set up to the top of the hill where an operator waited to signal when Orville had passed that point. However, a strong wind that day knocked down the telegraph line and also kept the balloon so low that Orville couldn’t see the turning point in advance, covering more than the needed distance. As the plane vanished from sight for a bit on the way back, the crowd feared the worst; but when it appeared again, heading back toward the parade ground, the honking of car horns and excited cheering showed that everyone knew they had witnessed something amazing. The time for the ten miles was fourteen minutes, or just under forty-three miles per hour. As a result, the Wright brothers received an extra $5,000 over the agreed base price—ten percent for every complete mile per hour over forty—and they got $30,000 for the aircraft.

Almost immediately after the Fort Myer trials and261 formal acceptance of the machine, on August 2, by the United States Government, Orville Wright, accompanied by his sister Katharine, set out for Berlin. Orville would start training a flyer for the German Wright company immediately after giving the exhibition arranged for by Captain Hildebrandt on behalf of the Lokal Anzeiger.

Almost right after the Fort Myer trials and261 the official approval of the machine on August 2 by the United States Government, Orville Wright, along with his sister Katharine, headed to Berlin. Orville would begin training a pilot for the German Wright company right after the exhibition set up by Captain Hildebrandt on behalf of the Lokal Anzeiger.

These first flights in Germany were to be made at Tempelhof field, then a military parade ground, at the outskirts of Berlin. On the day set for the initial flight, there was a terrible wind and Captain Hildebrandt, who accompanied Orville to the field, was torn between his desire not to disappoint the crowd and his fear of seeing Orville take too great a risk. Orville said he would follow Hildebrandt’s wishes.

These first flights in Germany were to happen at Tempelhof field, which was then a military parade ground on the outskirts of Berlin. On the day scheduled for the first flight, there was a strong wind, and Captain Hildebrandt, who accompanied Orville to the field, felt torn between wanting to please the crowd and worrying about Orville taking a big risk. Orville said he would go along with Hildebrandt’s wishes.

“No,” said Hildebrandt, “don’t go up.”

“No,” Hildebrandt said, “don’t go up.”

The next day even more people were present. Orville made a flight of fifteen minutes. When he landed it was difficult to keep the crowd from almost smothering him with adulation. People clamored for a chance not only to look at him up close, but to touch him. Men, women, and children struggled to lay gentle hands on him, even to touch his sleeve or the hem of his coat. Evidently it was some kind of belief in the desirability of physical contact with a miracle man.

The next day, even more people showed up. Orville completed a flight that lasted fifteen minutes. When he landed, it was hard to keep the crowd from nearly overwhelming him with praise. People shouted for a chance not just to see him up close, but to touch him. Men, women, and children pushed to lay gentle hands on him, even trying to touch his sleeve or the hem of his coat. Clearly, there was a belief in the value of physical contact with a miracle worker.

After a later flight, when Orville stayed in the air fifty-five minutes, the crowd about him and Katharine, who were accompanied by Mr. and Mrs. Charles R. Flint, was so dense that Orville felt duty bound to move as fast as he could away from his party, to relieve the262 pressure on them. Thereafter a hollow square of German soldiers kept the crowd at a safe distance.

After a later flight, when Orville stayed in the air for fifty-five minutes, the crowd around him and Katharine, who were with Mr. and Mrs. Charles R. Flint, got so thick that Orville felt he had to move as quickly as possible away from his group to lessen the262 pressure on them. After that, a hollow square of German soldiers kept the crowd at a safe distance.

The German Crown Prince, Frederick Wilhelm, sought to get in touch with Orville to ask the privilege of seeing a flight. He telephoned to the Wrights’ suite at the Hotel Esplanade, and the call was answered by a young German woman whom Katharine Wright had employed as interpreter when shopping.

The German Crown Prince, Frederick Wilhelm, wanted to reach out to Orville to request the chance to see a flight. He called the Wrights' suite at the Hotel Esplanade, and a young German woman, whom Katharine Wright had hired as an interpreter while shopping, answered the call.

When the girl discovered that the voice over the phone was that of a member of the royal family, she dropped the telephone receiver and almost fainted. Members of the hotel staff were not much less agitated when they learned that royalty might be calling on two of their guests.

When the girl found out that the voice on the phone belonged to a member of the royal family, she dropped the receiver and nearly passed out. The hotel staff was equally flustered when they realized that royalty might be calling on two of their guests.

Orville Wright and his sister were invited by Kaiser Wilhelm himself to be present—the only civilian guests—on August 29, when Count von Zeppelin would make the first trip in his latest model airship from Friedrichshafen, and land at Tegel field, Berlin.

Orville Wright and his sister were personally invited by Kaiser Wilhelm to attend—being the only civilian guests—on August 29, when Count von Zeppelin would take the first trip in his latest model airship from Friedrichshafen, landing at Tegel field, Berlin.

When he met Count von Zeppelin, Orville offered to take him for an airplane ride the next day. The Count, after expressing his appreciation, pleaded lack of time. But he invited Orville to accompany him in the airship on a trip, September 5, from Frankfort to Mannheim, and Orville accepted. In the course of that trip, Orville, by using a stop-watch in his pocket and counting telephone poles, was able to tell if the reported speed of the ship was correct. (When the Wrights were in Europe in 1907, they had seen flights by government-owned dirigibles in more than one country, and had noted that the German ship, Der Gross, was the only one that made263 the speed claimed for it. All they needed to learn was the length of the airship. Then by sighting on the corner of a building, while using a stop-watch, they could tell to the fraction of a second how long it took for the ship to travel its own length.)

When he met Count von Zeppelin, Orville offered to take him for an airplane ride the next day. The Count, after expressing his thanks, said he didn’t have enough time. But he asked Orville to join him on a trip in the airship on September 5, from Frankfurt to Mannheim, and Orville agreed. During that trip, Orville used a stopwatch in his pocket and counted telephone poles to determine if the reported speed of the ship was accurate. (When the Wrights were in Europe in 1907, they had seen flights by government-owned dirigibles in several countries and noted that the German ship, Der Gross, was the only one that achieved the speed it claimed. All they needed to figure out was the length of the airship. Then, by focusing on the corner of a building while using a stopwatch, they could calculate to the fraction of a second how long it took for the ship to travel its own length.)

On the airship’s arrival at Mannheim, the crowd was so great that Orville soon became separated from Captain Hildebrandt, who had come along as his interpreter. Here he was, not knowing much German, supposed to be guest of honor at a luncheon, and he didn’t even recall the name of the hotel where the affair was to be held. A member of the committee in charge of the luncheon decided that Orville would doubtless make his way to the center of the city, in search of the right hotel, and that there was just one way to locate him—to drive about the principal streets until he caught sight of him. This man had never met Orville but he felt sure he would recognize him from pictures he had seen. The plan, to Orville’s immense relief, succeeded.

On the airship’s arrival in Mannheim, the crowd was so huge that Orville soon got separated from Captain Hildebrandt, who had come along as his interpreter. Here he was, not knowing much German, expected to be the guest of honor at a luncheon, and he didn’t even remember the name of the hotel where it was taking place. A member of the committee organizing the luncheon figured that Orville would definitely make his way to the city center in search of the right hotel, and the only way to find him was to drive around the main streets until he spotted him. This man had never met Orville but was confident he would recognize him from the pictures he had seen. The plan, to Orville’s great relief, worked.

On September 16, Orville raised the world’s altitude record from 100 to 172 meters. Two days later, he made a new world’s record for a flight with a passenger. Accompanied by Captain Paul Englehardt, he flew for one hour, thirty-five minutes, forty-seven seconds.

On September 16, Orville broke the world altitude record by going from 100 to 172 meters. Two days later, he set a new world record for a passenger flight. With Captain Paul Englehardt on board, he flew for one hour, thirty-five minutes, and forty-seven seconds.

Toward the end of his stay in Germany, Orville’s flights were at Bornstedt field, near Potsdam. It was there that he trained two pilots for the German Wright company—Captain Englehardt and Herr Keidel.

Toward the end of his time in Germany, Orville's flights were at Bornstedt field, near Potsdam. It was there that he trained two pilots for the German Wright company—Captain Englehardt and Mr. Keidel.

Since his first meeting with Orville, the German Crown Prince had made no secret of his eager desire to fly as a passenger. As early as September 9, Orville264 had made a special flight of fifteen minutes for the Crown Prince to witness. Though he was willing enough to oblige the Crown Prince by taking him for a passenger flight, he hesitated to do so, lest it might be disapproved by the Kaiser, and he made one excuse after another for delay. He had been warned that if he took the Crown Prince as passenger against the Kaiser’s wishes, then he might immediately become persona non grata. The prudent thing to do, it seemed to Orville, was to give members of the royal family plenty of notification. Different members of the family came to Bornstedt field from time to time, and when he met any of them Orville was sure to remark that he and the Crown Prince were going to have a flight together before long. As no one made any objection, the German Crown Prince finally became, on October 2, the first member of a royal family ever to ride in an airplane. On landing, the Crown Prince handed to Orville, as a token of appreciation, a jeweled stick-pin—a crown set in rubies, with a “W” in diamonds. (The “W” was not for Wright, but for Wilhelm, the Crown Prince’s name.)

Since his first meeting with Orville, the German Crown Prince had openly expressed his strong desire to fly as a passenger. As early as September 9, Orville264 arranged a special fifteen-minute flight for the Crown Prince to observe. Although he was willing to take the Crown Prince on a flight, he hesitated to do so, fearing disapproval from the Kaiser, and kept making excuses for the delay. He had been warned that if he took the Crown Prince as a passenger against the Kaiser’s wishes, he could quickly become persona non grata. To play it safe, Orville thought it best to give ample notice to royal family members. Occasionally, different members of the family visited Bornstedt field, and whenever he encountered any of them, Orville made sure to mention that he would be flying with the Crown Prince soon. Since no one opposed this, the German Crown Prince finally became, on October 2, the first member of a royal family to ride in an airplane. Upon landing, the Crown Prince presented Orville with a jeweled stick-pin as a token of appreciation—a crown set with rubies, featuring a “W” in diamonds. (The “W” stood for Wilhelm, the Crown Prince’s name, not for Wright.)

On that same day, Orville ascended 1,600 feet for a new—though unofficial—world’s altitude record.

On that same day, Orville climbed to 1,600 feet for a new—though unofficial—world altitude record.

Orville’s farewell ascent in Germany was a twenty-five-minute flight, October 15, for Kaiser Wilhelm to see. The Kaiser was enthusiastic and frankly so. He was outspoken in expressing his belief that the airplane might revolutionize warfare, and talked about the different military uses to which the machine could be put. One thing that impressed him was the maneuverability265 of the plane. Orville had made complete turns within a space not much more than 100 feet wide.

Orville's final flight in Germany lasted twenty-five minutes on October 15, showcasing his work to Kaiser Wilhelm. The Kaiser was genuinely excited and openly expressed his belief that airplanes could change warfare dramatically. He discussed the various military applications for the aircraft. One aspect that really impressed him was the plane's maneuverability. Orville was able to make full turns in an area that was barely more than 100 feet wide.265

Now, during the time that Orville was making these sensational demonstrations in Germany, Wilbur Wright, in America, had been doing his share to glorify the brotherly partnership. On September 29, in connection with the Hudson-Fulton Celebration, Wilbur made spectacular flights witnessed by millions of people. Two of these were over Governors Island; and another was from Governors Island around the Statue of Liberty and back again. On October 4, Wilbur flew twenty-one miles from Governors Island up the Hudson River beyond Grant’s Tomb and back to the starting point. It was one of the most daring flights yet made in an airplane, and Wilbur had taken the precaution to buy a red canoe which he roped to the lower part of the plane. The part of the canoe ordinarily open was covered with canvas to make it water-tight. Wilbur’s idea was that if anything went wrong the canoe might possibly serve as a buoy, or pontoon, to keep the machine afloat. In going up the river he flew over ferryboats, and hot gases from the smokestacks did cause the plane to make what looked like dangerous plunges.

Now, while Orville was making these incredible demonstrations in Germany, Wilbur Wright, back in America, was doing his part to celebrate their brotherly partnership. On September 29, during the Hudson-Fulton Celebration, Wilbur made spectacular flights seen by millions. Two of these flights were over Governors Island, and another was from Governors Island around the Statue of Liberty and back. On October 4, Wilbur flew twenty-one miles from Governors Island up the Hudson River past Grant’s Tomb and back to where he started. It was one of the bravest flights ever made in an airplane, and Wilbur had taken the precaution of buying a red canoe, which he tied to the underside of the plane. The part of the canoe that was usually open was covered with canvas to make it water-tight. Wilbur thought that if anything went wrong, the canoe might act as a buoy or pontoon to keep the plane afloat. As he flew up the river, he passed over ferryboats, and the hot gases from the smokestacks did cause the plane to make what looked like dangerous dives.

A second flight was planned for that afternoon, and everyone who could exert influence had applied for a pass to the military reservation on Governors Island. But they were disappointed, for the engine blew a cylinder and that brought the series of flights to a close.

A second flight was scheduled for that afternoon, and everyone who had any pull applied for a pass to the military reservation on Governors Island. But they were let down when the engine blew a cylinder, which ended the series of flights.

Almost immediately after his flights for the Hudson-Fulton Celebration, Wilbur began preparations to train two Army Signal Corps officers, as provided for in the266 contract for the sale of a plane to the United States Government. This was done at College Park, Maryland, near Washington. The men trained were Lieutenants Frank P. Lahm and Frederic E. Humphreys. Their instruction began on October 8 and was completed October 26. Lieutenant Lahm, who had been the first army officer ever to fly as a passenger in a plane, received the first lesson in pilotage. But Humphreys made the first solo flight, a few minutes before Lahm’s.

Almost right after his flights for the Hudson-Fulton Celebration, Wilbur started getting ready to train two Army Signal Corps officers, as outlined in the 266 contract for selling a plane to the United States Government. This took place at College Park, Maryland, near Washington. The trainees were Lieutenants Frank P. Lahm and Frederic E. Humphreys. Their training started on October 8 and wrapped up on October 26. Lieutenant Lahm, who was the first army officer ever to fly as a passenger in a plane, got the first lesson in flying. However, Humphreys was the one who made the first solo flight, just a few minutes before Lahm did.

Wilbur also gave some lessons to Lieutenant Benjamin D. Foulois between October 23 and 27.

Wilbur also taught some lessons to Lieutenant Benjamin D. Foulois from October 23 to 27.

Orville and Katharine Wright sailed from Europe on the Adriatic, due in New York November 4. After leaving Germany, Orville had investigated the outlook of the recently formed French company. Already it appeared that this company would be a disappointment. Count de Lambert had given the company the best kind of advertising by flying a Wright plane over Paris, around and above the Eiffel Tower. But the French Wright company evidently was depending more on political influence and on entertaining important people than on sound salesmanship. The War Ministry hesitated to buy planes for fear of public criticism. General Picquart, the Army officer who had stood for justice in the Dreyfus case, had become Minister of War. He once inquired of the Wrights if it would be possible to buy their planes directly from them in the United States.

Orville and Katharine Wright sailed from Europe on the Adriatic, arriving in New York on November 4. After leaving Germany, Orville looked into the prospects of the newly formed French company. It already seemed clear that this company would be a letdown. Count de Lambert had given the company excellent publicity by flying a Wright plane over Paris, around and above the Eiffel Tower. However, the French Wright company seemed to be relying more on political connections and entertaining important people than on effective sales strategies. The War Ministry was hesitant to purchase planes due to concerns about public backlash. General Picquart, the Army officer who had championed justice in the Dreyfus case, had become the Minister of War. He once asked the Wrights if it would be possible to buy their planes directly from them in the United States.

That would have been against provisions of the contract with the company in France, but there was another267 reason why it could not be done. The Wrights were not yet organized to produce planes in great numbers. Though there were now two commercial companies for the manufacture of Wright planes in Europe, no such company yet existed in America.

That would have gone against the terms of the contract with the company in France, but there was another267 reason why it couldn't happen. The Wrights were not yet set up to produce planes in large quantities. While there were now two commercial companies making Wright planes in Europe, no such company existed in America yet.


After companies to manufacture the Wright brothers’ invention had been organized in France and Germany, and a plane had been sold in Italy, it might have been expected that important business people in the United States would see commercial possibilities in the Wright patents. The inventors had, indeed, received offers. One proposal had come from two brothers, in Detroit, influential stockholders in the Packard Automobile Company, Russell A. and Frederick M. Alger—who some time before had been the first in the United States to order a Wright machine for private use. But the first American company to manufacture the plane was promoted by a mere youngster.

After companies to produce the Wright brothers’ invention were set up in France and Germany, and a plane was sold in Italy, it would have been expected that major business figures in the United States would recognize the commercial potential of the Wright patents. The inventors had, in fact, received offers. One proposal came from two brothers in Detroit, influential shareholders in the Packard Automobile Company, Russell A. and Frederick M. Alger—who had previously been the first in the United States to order a Wright machine for personal use. However, the first American company to manufacture the plane was started by a young entrepreneur.

That was Clinton R. Peterkin. He was barely twenty-four and looked even younger. Only a year or two previously he had been with J. P. Morgan & Company as “office boy”—a job he had taken at the age of fifteen. But he had intelligently made the most of his opportunities by spending all the time he could in the firm’s inner rooms, and had learned something of how new business enterprises were started.

That was Clinton R. Peterkin. He was just twenty-four and looked even younger. Only a year or two before, he had been an "office boy" at J. P. Morgan & Company—a job he started at fifteen. But he had smartly taken advantage of his opportunities by spending as much time as possible in the firm's inner offices, learning a bit about how new business ventures got off the ground.

Now, recently returned from a stay in the West because of ill health, Peterkin wished to be a promoter, and he wondered if the Wright brothers would agree269 to the formation of a flying-machine company. By chance he learned that Wilbur Wright was spending a few days at the Park Avenue Hotel in New York, and in October, 1909, he went to see him.

Now, having just returned from a trip out West due to health issues, Peterkin wanted to become a promoter, and he thought about whether the Wright brothers would be willing to start a flying-machine company. By coincidence, he found out that Wilbur Wright was staying for a few days at the Park Avenue Hotel in New York, so in October 1909, he went to meet him.

Wilbur was approachable enough and received Peterkin in a friendly way, though he didn’t seem to set too much store by the young man’s proposals. In reply to questions, Wilbur said that he and his brother would not care to have a company formed unless those in it were men of consequence. They would want names that carried weight. Then Peterkin spoke of knowing J. P. Morgan, whom he might be able to interest.

Wilbur was friendly and welcomed Peterkin, although he didn’t seem to take the young man’s ideas too seriously. When asked questions, Wilbur mentioned that he and his brother wouldn’t want to start a company unless it included people of significance. They would want names that mattered. Then Peterkin mentioned that he knew J. P. Morgan, who he might be able to engage.

Without making any kind of agreement or promise, Wilbur told him he could go ahead and see what he could do—doubtless assuming that he would soon become discouraged. But Peterkin saw J. P. Morgan who told him he would take stock and that he would subscribe also for his friend Judge Elbert H. Gary, head of the United States Steel Corporation.

Without making any kind of agreement or promise, Wilbur told him he could go ahead and see what he could do—probably thinking that he would soon get discouraged. But Peterkin saw J. P. Morgan, who told him he would take stock and that he would also subscribe for his friend Judge Elbert H. Gary, head of the United States Steel Corporation.

After seeing Morgan, Peterkin was enthusiastically telling of his project to a distant relative of his, a member of a law firm with offices in the financial district. The senior partner in that law firm, DeLancey Nicoll, chanced to overhear what Peterkin was saying and grew interested. He suggested that perhaps he might be of help. That was a good piece of luck for Peterkin. He could hardly have found a better ally, for DeLancey Nicoll had an exceptionally wide and intimate acquaintance among men in the world of finance. All he needed to do to interest some of his friends was to call them on the telephone.

After meeting with Morgan, Peterkin excitedly shared his project with a distant relative of his, who worked at a law firm in the financial district. The senior partner at that firm, DeLancey Nicoll, happened to overhear Peterkin’s conversation and became interested. He offered to help, which was a stroke of good luck for Peterkin. He couldn’t have asked for a better ally, as DeLancey Nicoll had an extensive and close network among people in the finance world. All he had to do to attract some of his friends' interest was give them a call.

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In a surprisingly short time, an impressive list of moneyed men were enrolled as subscribers in the proposed flying-machine company. A number of them were prominent in the field of transportation. The list included Cornelius Vanderbilt, August Belmont, Howard Gould, Theodore P. Shonts, Allan A. Ryan, Mortimer F. Plant, Andrew Freedman, and E. J. Berwind. Shonts was president of the New York Interborough subway. Ryan, a son of Thomas F. Ryan, was a director of the Bethlehem Steel Corporation. Plant was chairman of the Board of Directors of the Southern Express Company, and Vice President of the Chicago, Indianapolis & Louisville Railroad. Berwind, as President of the Berwind-White Coal Mining Company, had accumulated a great fortune from coal contracts with big steamship lines. Freedman had made his money originally as a sports promoter and then in various financial operations. (He later provided funds for founding the Andrew Freedman Home in New York.)

In a surprisingly short time, an impressive list of wealthy individuals signed up as backers for the proposed flying-machine company. Many of them were well-known figures in the transportation industry. The list included Cornelius Vanderbilt, August Belmont, Howard Gould, Theodore P. Shonts, Allan A. Ryan, Mortimer F. Plant, Andrew Freedman, and E. J. Berwind. Shonts was the president of the New York Interborough subway. Ryan, the son of Thomas F. Ryan, was a director at the Bethlehem Steel Corporation. Plant held the position of chairman of the Board of Directors for the Southern Express Company and was Vice President of the Chicago, Indianapolis & Louisville Railroad. Berwind, as President of the Berwind-White Coal Mining Company, had amassed a significant fortune from coal contracts with major steamship lines. Freedman initially made his money as a sports promoter before moving on to various financial ventures. (He later funded the establishment of the Andrew Freedman Home in New York.)

The Wrights wanted to have in the company their friends Robert J. Collier, publisher of Collier’s Weekly, and the two Alger brothers of Detroit. Those names were promptly added.

The Wrights wanted to include their friends Robert J. Collier, the publisher of Collier’s Weekly, and the two Alger brothers from Detroit in the company. Those names were quickly added.

But the names of J. P. Morgan and E. H. Gary were not in the final list of stockholders. The truth was that some of the others in the proposed company did not want Morgan with them because they believed—probably correctly—that he would dominate the company; that where he sat would be the head of the table. One of them phoned to Morgan that the stock was oversubscribed. When he thus got strong hints that his participation271 was not too eagerly desired, Morgan promptly withdrew his offer to take stock for himself and Gary.

But the names of J. P. Morgan and E. H. Gary didn’t make it onto the final list of stockholders. The reality was that some of the other people in the proposed company didn’t want Morgan involved because they believed—probably correctly—that he would take control of the company; that wherever he sat would be the head of the table. One of them called Morgan to say the stock was oversubscribed. When he received strong hints that his involvement wasn’t exactly welcome, Morgan quickly withdrew his offer to buy stock for himself and Gary.

On November 22, 1909, only about a month after Peterkin’s first talk with Wilbur, The Wright Co. was incorporated. The capital stock represented a paid-in value of $200,000. In payment for all rights to their patents in the United States, the Wright brothers received stock and cash, besides a provision for ten per cent royalty on all planes sold; and The Wright Co. would thenceforth bear the expense of prosecuting all suits against patent infringers.

On November 22, 1909, just about a month after Peterkin’s first conversation with Wilbur, The Wright Co. was incorporated. The capital stock was valued at $200,000. In exchange for all rights to their patents in the United States, the Wright brothers received stock and cash, along with a provision for a ten percent royalty on all planes sold; and from that point on, The Wright Co. would handle the costs of pursuing all lawsuits against patent infringers.

From the Wright brothers’ point of view, the one fly in the ointment was that they now found themselves more involved than ever before in business affairs. It had been their dream to be entirely out of business and able to give their whole time to scientific research.

From the Wright brothers’ perspective, the main issue was that they were more caught up in business matters than ever. They had always dreamed of stepping away from business activities to focus entirely on scientific research.

The company opened impressive offices in the Night and Day Bank Building, 527 Fifth Avenue, New York, but the factory would be in Dayton. In January, 1910, Frank Russell, a cousin of the Algers, who had been appointed factory manager, arrived in Dayton and went to see the Wrights at their office over the old bicycle shop. As the brothers had no desk space to offer him, they suggested a room at the rear of a plumbing shop down the street where he might make temporary headquarters. According to Russell, Wilbur Wright came there a day or two later carrying a basket filled with letters, directed to The Wright Co., that had been accumulating.

The company opened impressive offices in the Night and Day Bank Building, 527 Fifth Avenue, New York, but the factory would be in Dayton. In January 1910, Frank Russell, a cousin of the Algers, who had been appointed factory manager, arrived in Dayton and went to see the Wrights at their office above the old bicycle shop. Since the brothers had no desk space for him, they suggested a room at the back of a plumbing shop down the street where he could set up temporary headquarters. According to Russell, Wilbur Wright came by a day or two later carrying a basket full of letters addressed to The Wright Co. that had been piling up.

“I don’t know what you’ll want to do about these,” Russell has reported Wilbur as jokingly saying; “maybe272 they should be opened. But of course if you open a letter, there’s always the danger that you may decide to answer it, and then you’re apt to find yourself involved in a long correspondence.”

“I don’t know what you’ll want to do about these,” Russell has reported Wilbur as jokingly saying; “maybe272 they should be opened. But of course, if you open a letter, there’s always the risk that you might feel compelled to respond, and then you’re likely to end up in a lengthy back-and-forth.”

At first The Wright Co. rented floor space in a factory building, but almost immediately the company started to build a modern factory of its own, and it was ready for use by November, 1910. Within a short time after the company started operations in its rented space it had a force of employees at mechanical work and was able to produce about two airplanes a month.

At first, The Wright Co. rented space in a factory building, but soon after, the company began constructing its own modern factory, which was ready for use by November 1910. Not long after starting operations in its rented space, the company had a team of employees working on mechanical tasks and was able to produce about two airplanes per month.

The Wrights well knew that the time was not yet for the company to operate profitably by selling planes for private use. Their main opportunity to show a good return on the capital invested would be from public exhibitions. Relatively few people in the United States had yet seen an airplane in flight and crowds would flock to behold this new miracle—still, in 1910, almost incredible.

The Wrights understood that it wasn’t time yet for the company to make a profit by selling planes for personal use. Their best chance to demonstrate a good return on the capital they invested would come from public exhibitions. At that point, only a small number of people in the United States had seen an airplane in flight, and crowds would gather to witness this new marvel—still, in 1910, almost unbelievable.

As soon as they decided to give public exhibitions, the Wrights got in touch with another pioneer of the air, Roy Knabenshue, a young man from Toledo, who had been making balloon flights since his early teens, and was the first in the United States to have piloted a steerable balloon. They had previously become acquainted with Knabenshue. Because of his curiosity over anything pertaining to aerial navigation, he had once subscribed to a press-clipping bureau which sent him anything found in the papers about aeronautics; and in this way he had been able to read an occasional news item about the two Dayton men said to have flown. With a fairly irresistible impish grin, Knabenshue273 never had much trouble making new acquaintances, and he decided to call upon the Wrights.

As soon as they decided to hold public exhibitions, the Wright brothers contacted another aviation pioneer, Roy Knabenshue, a young guy from Toledo who had been making balloon flights since his early teens and was the first in the United States to pilot a steerable balloon. They were already familiar with Knabenshue. His curiosity about anything related to flying led him to subscribe to a press-clipping service that sent him all the newspaper articles on aeronautics; this way, he could read occasional news about the two men from Dayton who were said to have flown. With a pretty irresistible mischievous grin, Knabenshue never had much trouble meeting new people, so he decided to visit the Wrights.

That was before the Wright flights at Fort Myer and in France, and the brothers were not then interested when Knabenshue suggested that they sell him planes for exhibitions.

That was before the Wright flights at Fort Myer and in France, and the brothers weren't interested when Knabenshue proposed they sell him planes for shows.

“Well,” he said, “I have been making airship flights at the big state fairs, besides promoting public exhibitions, and I know how to make the proper contacts. You may have heard about my flights in a small dirigible at the St. Louis World’s Fair. If you ever decide to give exhibitions, just let me know.”

“Well,” he said, “I’ve been flying airships at major state fairs, along with organizing public exhibitions, and I know how to make the right connections. You might have heard about my flights in a small airship at the St. Louis World’s Fair. If you ever decide to hold any exhibitions, just let me know.”

Though exhibitions had been farthest from the Wrights’ thoughts at the time of that first meeting with Knabenshue, now the situation was different. Roy Knabenshue would probably be the very man they needed. They sent a telegram to him and he received it at Los Angeles. He wired back that he would see them as soon as he returned to Ohio. This he did soon afterward. The result of their conversation was that Roy took charge of the work of arranging for public flights. He had need of a competent secretary and an intelligent young woman, Miss Mabel Beck, came to take the job. This was her first employment and she seemed a bit ill at ease, lest her work might not be satisfactory; but almost immediately she became an extraordinarily good assistant—so good, in fact, that Wilbur Wright afterward selected her to work with him in connection with suits against patent infringers, and after his death she became secretary to Orville Wright, in which position, at this writing, she still is.

Though exhibitions were the last thing on the Wrights' minds during their first meeting with Knabenshue, the situation had changed. Roy Knabenshue was likely the exact person they needed. They sent him a telegram, which he received in Los Angeles. He replied that he would meet them as soon as he got back to Ohio. He did so shortly after. As a result of their conversation, Roy took charge of organizing public flights. He needed a skilled secretary, and a smart young woman named Miss Mabel Beck came to fill the role. This was her first job, and she seemed a little nervous, worrying that her work wouldn’t meet expectations; but she quickly became an exceptionally good assistant—so much so that Wilbur Wright later chose her to work with him on lawsuits against patent infringers, and after his passing, she became secretary to Orville Wright, a position she still holds at the time of this writing.

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By the time Knabenshue had started planning for public exhibitions, Orville Wright had begun the training of pilots to handle the exhibition planes being built. The weather was still too wintry for flying at Huffman field, now leased by The Wright Co., and it was necessary to find a suitable place in a warmer climate. The field selected was at Montgomery, Alabama. (Today known as Maxwell Field, it is used by the United States Government.)

By the time Knabenshue began planning public exhibitions, Orville Wright had started training pilots to operate the exhibition planes being built. The weather was still too cold for flying at Huffman Field, which was now leased by The Wright Co., so it was necessary to find a suitable location in a warmer climate. The chosen site was in Montgomery, Alabama. (Today known as Maxwell Field, it is used by the United States Government.)

Shortly after his arrival at Montgomery, early in 1910, Orville Wright had a new experience in the air. While at an altitude of about 1,500 feet he found himself unable to descend, even though the machine was pointed downward as much as seemed safe. Brought up to have faith in the force of gravity, he didn’t know at first what to make of this. For nearly five minutes he stayed there, in a puzzled state of mind bordering on alarm. Later it occurred to him that the machine must have been in a whirlwind of rising air current of unusual diameter, and that doubtless he could have returned quickly to earth if he had first steered horizontally to get away from the rising current.

Shortly after he arrived in Montgomery, early in 1910, Orville Wright had a new experience in the air. While at an altitude of about 1,500 feet, he found himself unable to descend, even though the machine was angled downward as much as seemed safe. Raised to trust in the force of gravity, he didn't know what to make of this at first. He stayed there for nearly five minutes, feeling puzzled and a bit alarmed. Later, he realized that the machine must have been caught in a whirlwind of rising air current of unusual size, and he could have quickly returned to the ground if he had steered horizontally first to get out of the rising current.

The first pilot Orville trained was Walter Brookins of Dayton. “Brookie” was a logical candidate for that distinction, for since the age of four he had been a kind of “pet” of Orville’s. After Orville had left Montgomery and returned to Dayton on May 8, Brookins himself became an instructor. He began, at Montgomery, the training of Arch Hoxsey, noted for his personal charm and his gay, immaculate clothes; and also that of Spencer C. Crane.

The first pilot Orville trained was Walter Brookins from Dayton. “Brookie” was a sensible choice for that honor since he had been a sort of “pet” of Orville’s since he was four. After Orville left Montgomery and returned to Dayton on May 8, Brookins became an instructor himself. He started training Arch Hoxsey in Montgomery, who was known for his charm and stylish, clean-cut clothes; he also trained Spencer C. Crane.

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On his return to Dayton, Orville opened a flying school at the same Huffman field14 the Wright brothers had used for their experiments in 1904–5. Here he trained A. L. Welsh and Duval LaChapelle. When Brookins arrived there from Montgomery, near the end of May, he took on the training of Ralph Johnstone and Frank T. Coffyn, besides completing the training of Hoxsey. Two others trained at the same field later in the year were Phil O. Parmalee and C. O. Turpin.

On his return to Dayton, Orville opened a flying school at the same Huffman field14 the Wright brothers had used for their experiments in 1904–5. Here he trained A. L. Welsh and Duval LaChapelle. When Brookins arrived there from Montgomery, near the end of May, he took on the training of Ralph Johnstone and Frank T. Coffyn, in addition to finishing Hoxsey's training. Two others who trained at the same field later in the year were Phil O. Parmalee and C. O. Turpin.

Orville Wright continued to make frequent flights until 1915, personally testing every new device used on a Wright plane. (He did not make his final flight as a pilot until 1918.) More than one person who witnessed flights at the Huffman field (or at Simms station, as the place was better known) has made comment that it was never difficult to pick Orville Wright from the other flyers, whether he was on the ground or in a plane. Students, and instructors too, would be dressed to the teeth for flying, with special suits, goggles, helmets, gauntlets, and so on; but Orville always wore an ordinary business suit. He might put on a pair of automobile goggles and shift his cap backward, and on cold days he would turn276 up his coat collar; but otherwise he was dressed as for the street. When he was in the air anyone could recognize who it was—from the smoothness of his flying. And when he wished to test the control and stability of a plane, he would sometimes come down and make figure eights at steep angles with the wing tip maybe not more than a few feet from the grass.

Orville Wright continued to fly frequently until 1915, personally testing every new device used on a Wright plane. (He didn't make his final flight as a pilot until 1918.) More than one person who watched flights at Huffman field (or Simms station, as it was better known) noted that it was never hard to spot Orville Wright among the other flyers, whether he was on the ground or in a plane. Students and instructors alike would be dressed to impress for flying, sporting special suits, goggles, helmets, gloves, and more; but Orville always wore a regular business suit. He might wear a pair of car goggles and shift his cap backward, and on cold days he would flip up his coat collar; but otherwise, he was dressed as if he were on the street. When he was in the air, anyone could recognize him—from the smoothness of his flying. And when he wanted to test the control and stability of a plane, he would sometimes come down and make figure eights at steep angles, with the wing tip sometimes just a few feet from the grass.

The public was no longer unaware of the significance of the flights at Huffman field. Sightseers began to use every possible pretext to come as close to the planes as possible. One evening as Orville Wright was standing near the hangar, a bystander edged up to him.

The public was now aware of the importance of the flights at Huffman field. Sightseers started using every excuse imaginable to get as close to the planes as they could. One evening, while Orville Wright was standing near the hangar, a bystander approached him.

“I flew with Orville Wright down at Montgomery,” he declared, “and he told me to make myself at home here.”

“I flew with Orville Wright in Montgomery,” he said, “and he told me to feel at home here.”

Never before having seen Orville, he had mistaken him for an employee.

Never having seen Orville before, he mistook him for an employee.

TWO ACES AND KING. Orville Wright, Wilbur Wright, and Edward VII of England at Pau, France, March 17, 1909.

Three flights at Huffman field in May, 1910, were especially noteworthy. A short one by Wilbur—one minute twenty-nine seconds—on May 21, was the first he had made alone since his sensational feats starting from Governors Island. And it was the last flight as a pilot Wilbur ever made. But on May 25 he and Orville flew for a short time together—with Orville piloting—the only occasion when the Wright brothers were both in the air at the same time. Later that same day, Orville took his father, Bishop Milton Wright, then eighty-two years old,15 for his first trip in a flying-machine. They flew for six minutes fifty-five seconds, most of the time277 at about 350 feet. The only thing that Bishop Wright said while in the air was a request to go “higher, higher.”

Three flights at Huffman field in May 1910 were particularly significant. A brief one by Wilbur—one minute and twenty-nine seconds—on May 21 was the first he had made solo since his impressive performances starting from Governors Island. It was also the last flight Wilbur ever made as a pilot. But on May 25, he and Orville flew together briefly—with Orville in the pilot's seat—the only time the Wright brothers were both in the air at the same moment. Later that day, Orville took his father, Bishop Milton Wright, who was eighty-two years old, for his first ride in an airplane. They flew for six minutes and fifty-five seconds, spending most of the time at about 350 feet. The only thing Bishop Wright said while airborne was a request to go “higher, higher.”

The average charge by The Wright Co. for a series of exhibition flights at a county fair or elsewhere was about $5,000 for each plane used. At Indianapolis, the scene of the first exhibition, five planes were used. The weather was not ideal for the Indianapolis event, but the crowd was much impressed. Another early exhibition was at Atlantic City, where, for the first time, wheels were publicly used on a Wright machine for starting and landing.

The average fee charged by The Wright Co. for a series of exhibition flights at a county fair or other locations was around $5,000 for each plane used. At Indianapolis, where the first exhibition took place, five planes were utilized. The weather wasn't great for the Indianapolis event, but the audience was very impressed. Another early exhibition occurred at Atlantic City, where, for the first time, wheels were publicly used on a Wright machine for takeoffs and landings.

THE WRIGHT HOME AND SHOP. The original Wright homestead and Wright bicycle shop, brought from Dayton and restored at Greenfield Village, Dearborn, Michigan.

Roy Knabenshue knew from his experience in making public airship exhibitions, that it was not enough to go where a fair or carnival was to be held and suggest airplane flights as a feature. To get all the business possible for his company he must promote exhibition flights in places where no such big outdoor events were yet contemplated. He particularly desired to have flights made in large cities where newspaper reports of the event would attract attention over a large area and aid him in making further bookings. With this in mind he went to Chicago and started inquiries to learn whether public-spirited citizens there would be willing to underwrite a big public demonstration of aviation along the lake front. Several people told him the man he should see was Harold McCormick, one of the controlling stockholders in the wealthy International Harvester Company. He went at once to McCormick’s offices in the Harvester Building. But when he reached the outer office, he discovered that it was not easy to get any farther.

Roy Knabenshue knew from his experience with public airship shows that it wasn’t enough to just go where a fair or carnival was happening and suggest airplane flights as an attraction. To maximize business for his company, he needed to promote exhibition flights in areas where no large outdoor events were planned. He especially wanted to conduct flights in big cities where news coverage of the event would draw attention across a wide area and help him secure more bookings. Keeping this in mind, he traveled to Chicago and started asking around to see if any civic-minded residents would be interested in sponsoring a major public aviation demonstration along the lakefront. Several people directed him to Harold McCormick, one of the key investors in the wealthy International Harvester Company. He headed straight to McCormick’s offices in the Harvester Building. However, when he arrived at the outer office, he realized it was not easy to go any further.

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“What was it you wished to see Mr. McCormick about?” asked a secretary.

“What did you want to talk to Mr. McCormick about?” asked a secretary.

“I don’t wish to sell him anything,” Roy explained, smiling in a manner that should have won confidence, but didn’t. “Please just say to him that there’s a man here who has an important suggestion for him.”

“I don’t want to sell him anything,” Roy said, smiling in a way that should have built trust, but didn’t. “Just please tell him there’s a guy here with an important suggestion for him.”

“But if you’ll tell me what the suggestion is,” the secretary proposed, “then he can let you know if he is interested.”

“But if you tell me what the suggestion is,” the secretary said, “then he can let you know if he's interested.”

“No, I’ll tell you what you do,” countered Roy. “Please hand my card to him and let him decide if he wishes to see me.”

“No, here’s what you should do,” Roy replied. “Please pass my card to him and let him decide if he wants to meet with me.”

The secretary reluctantly took Roy’s card which indicated that he represented The Wright Co. of Dayton, Ohio. A moment later the secretary returned to say that Mr. McCormick was too busy to see anyone.

The secretary hesitantly took Roy’s card, which showed that he was with The Wright Co. of Dayton, Ohio. A moment later, the secretary came back to say that Mr. McCormick was too busy to meet with anyone.

Roy walked out of the building into Michigan Avenue, discouraged.

Roy stepped out of the building onto Michigan Avenue, feeling down.

“No matter how good an idea you’ve got,” he reflected, “and no matter how much some of these big executives might be interested, you don’t get a chance to tell them about it.”

“No matter how great your idea is,” he thought, “and no matter how much some of these big executives might care, you don’t get a chance to pitch it to them.”

As he strolled along, his eye chanced to fall on a big sign that read: “Think Of It. The Record-Herald Now One Cent.” Then he remembered that the Chicago Record-Herald, rival of the Tribune in the morning field, had recently reduced its price and was making a big bid for increased circulation. He also recalled that H. H. Kohlsaat, owner of the Record-Herald, had known his father. Using his father’s name for an introduction, he had little difficulty, a half hour later, in279 gaining access to Kohlsaat’s private office to tell him what was on his mind. The publisher grew interested. Yes, it might be a good idea to have some airplane flights along the lake front and invite the public to see them as guests of the Record-Herald. Before he left the office, Roy had the preliminary arrangements all made.

As he walked along, he noticed a big sign that said: “Think About It. The Record-Herald Now Just One Cent.” Then he remembered that the Chicago Record-Herald, a competitor of the Tribune in the morning market, had recently lowered its price and was trying hard to boost its circulation. He also recalled that H. H. Kohlsaat, the owner of the Record-Herald, knew his father. Using his father’s name to introduce himself, he had little trouble, half an hour later, in279 getting into Kohlsaat’s private office to share his thoughts. The publisher became interested. Yes, it could be a good idea to have some airplane flights along the lakefront and invite the public to watch as guests of the Record-Herald. Before he left the office, Roy had all the preliminary arrangements made.

On the opening day of the big event, when Walter Brookins, as pilot, was about to take off on the first flight, Knabenshue remarked to him: “That corner window on the fourth floor of the Harvester Building is in the office of a man I hope will see what’s going on.”

On the first day of the big event, when Walter Brookins, as the pilot, was ready to take off on the first flight, Knabenshue said to him, “That corner window on the fourth floor of the Harvester Building belongs to a guy I hope is watching what’s happening.”

The next day Knabenshue appeared once again at Harold McCormick’s office in the Harvester Building and presented his business card to the same secretary he had met on his previous visit.

The next day, Knabenshue showed up again at Harold McCormick’s office in the Harvester Building and handed his business card to the same secretary he had met during his last visit.

After looking at the card, the secretary, without waiting to consult anyone, said: “Oh, yes, you’re with The Wright Company. I’m sure Mr. McCormick will wish to see you. Just step this way.”

After glancing at the card, the secretary, without waiting to check with anyone, said: “Oh, yes, you’re with The Wright Company. I’m sure Mr. McCormick will want to see you. Just follow me.”

Roy had made this call partly as a kind of practical joke—for the satisfaction of entering an office where he had once been denied. But as a result of the talk he then had with McCormick, it was arranged that a committee of Chicago citizens should sponsor, the next year, another aviation meeting there, to be the biggest thing of the kind ever held.

Roy had made this call partly as a practical joke—for the thrill of walking into an office where he had once been turned away. But after his conversation with McCormick, it was decided that a committee of Chicago citizens would host another aviation meeting the following year, making it the largest one of its kind ever held.

Meanwhile, on the final day of the 1910 exhibitions at Chicago, Brookins made the first long cross-country flight, 185 miles, to Springfield, Illinois. It was not, however, a non-stop flight. He made one landing in a cornfield, and it was necessary to obtain permission280 from the farm owner to cut a wide strip across the field to provide space for the plane to take off.

Meanwhile, on the last day of the 1910 exhibitions in Chicago, Brookins completed the first long cross-country flight, covering 185 miles to Springfield, Illinois. However, it wasn't a non-stop flight. He landed once in a cornfield and had to get permission from the farm owner to cut a wide strip across the field to create space for the plane to take off.280

In that same year, 1910, Dayton people saw the first flight over the city itself. Thousands had now seen flights at the Huffman field, Simms station, but no flight had ever been made nearer than eight miles to the home town where successful flying was conceived. The Greater Dayton Association was holding, in September, an industrial exhibit, but it was operating at a loss. Those in charge of the exhibit saw that something would have to be done to arouse interest. Orville Wright was asked if he would start at Simms station, fly to Dayton and circle over the city. He agreed and the newspapers announced the flight for the next day. It was stirring news—even to Katharine Wright. She had started to Oberlin to attend a college meeting, but, when on her arrival there she happened to see a newspaper item about Orville’s flight scheduled for the next day, she hastened home at once.

In 1910, people in Dayton witnessed the first flight over the city itself. Thousands had already seen flights at Huffman Field and Simms Station, but no flight had ever been made closer than eight miles from the hometown where flight was first imagined. The Greater Dayton Association was hosting an industrial exhibit in September, but it was running at a loss. The organizers realized they needed to do something to spark interest. Orville Wright was asked if he would launch from Simms Station, fly to Dayton, and circle overhead. He agreed, and the newspapers announced the flight for the next day. It was exciting news—even for Katharine Wright. She had gone to Oberlin for a college meeting, but when she arrived and saw a newspaper article about Orville's flight planned for the next day, she hurried back home immediately.

Another premier event in 1910 was when an airplane for the first time in the world was used for commercial express service. The Morehouse-Martin Co., a department store in Columbus, Ohio, arranged to have a bolt of silk brought from Huffman field to a driving park beyond Columbus. The distance of more than sixty miles was covered at better than a mile a minute, then considered fast airplane speed; and the “express fee” was $5,000, or about $71.42 a pound. But within a day or two the store had a good profit on the transaction, for it sold small pieces of the silk for souvenirs, and the gross returns were more than $6,000.

Another major event in 1910 was when an airplane was used for commercial express service for the very first time. The Morehouse-Martin Co., a department store in Columbus, Ohio, arranged to have a bolt of silk transported from Huffman Field to a driving park outside Columbus. The journey of over sixty miles was completed at a speed of more than a mile a minute, which was considered fast airplane speed at the time; and the “express fee” was $5,000, or about $71.42 per pound. However, within a day or two, the store made a nice profit on the transaction because it sold small pieces of the silk as souvenirs, generating gross returns of over $6,000.

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Then, at Belmont Park, New York, in late October, 1910, Wright planes participated in a great International Aviation Tournament. All other planes taking part were licensed by The Wright Co.

Then, at Belmont Park, New York, in late October, 1910, Wright planes took part in a major International Aviation Tournament. Every other plane competing was licensed by The Wright Co.

Orville Wright now devoted his time mainly to supervision of engineering at the factory of The Wright Co. Wilbur was kept busy looking after the prosecution of suits against patent infringers and in March, 1911, he went to Europe in connection with suits brought by the Wright company of France. From France he went to Germany and while there called at the home of the widow of Otto Lilienthal to offer his homage to the memory of that pioneer in aviation whose work had been an inspiration to the Wrights.

Orville Wright now spent most of his time overseeing engineering at The Wright Co. Wilbur was occupied with handling lawsuits against patent infringers, and in March 1911, he traveled to Europe for cases initiated by the Wright company in France. After France, he visited Germany and while there, paid a visit to the widow of Otto Lilienthal to pay his respects to the memory of that aviation pioneer whose work had inspired the Wrights.

After Wilbur’s return to America, Orville spent several weeks in October, 1911, at Kitty Hawk, where he went to do some experimenting with an automatic control device and to make soaring flights with a glider. In camp with him were Alec Ogilvie of England, who flew a Wright plane, Orville’s brother Lorin, and Lorin’s ten-year-old boy, “Buster.” On account of the presence of a group of newspapermen who appeared and were at the camp each day during his entire stay at Kitty Hawk, Orville never tested the new automatic device; but before his soaring experiments were over he had made, on October 24, a new record, soaring for nine minutes forty-five seconds. (This was to remain the world’s record until ten years later when it was exceeded in Germany.)

After Wilbur came back to America, Orville spent a few weeks in October 1911 at Kitty Hawk, where he was experimenting with an automatic control device and doing soaring flights with a glider. Joining him in camp were Alec Ogilvie from England, who flew a Wright plane, Orville's brother Lorin, and Lorin's ten-year-old son, "Buster." Because a group of reporters showed up and stayed at the camp every day during his entire time at Kitty Hawk, Orville never tested the new automatic device. However, by the end of his soaring experiments, on October 24, he had set a new record, soaring for nine minutes and forty-five seconds. (This record would stand for ten years until it was broken in Germany.)

That same year, 1911, The Wright Co. benefited from another aviation record. Cal P. Rodgers, who282 had received some of his flying training at the Wright School, made—between September 11 and November 5—the first transcontinental airplane trip, from New York to California.

That same year, 1911, The Wright Co. benefited from another aviation record. Cal P. Rodgers, who282 had received some of his flying training at the Wright School, made—between September 11 and November 5—the first transcontinental airplane trip, from New York to California.

New as their line of business was, The Wright Co. was profitable from the start—especially so during the first year or two when the sight of a flying-machine was still a novelty and contracts for exhibition flights were numerous. (It might have been more profitable if the Wrights had not insisted that no contracts be made to include flights on Sunday.) But inevitably the exhibition part of the business began to taper off—and such profits as might still have come from it were reduced by the persistent illegal competition of patent infringers. More and more, the company’s dealings were with the United States Army and Navy and with private buyers of planes. The first private plane sold had gone to Robert J. Collier, and others seeking the excitement or prestige of owning a plane had been making inquiries. The retail price of a plane was $5,000.

New as their line of business was, The Wright Co. was profitable from the start—especially during the first year or two when seeing a flying machine was still a novelty and contracts for exhibition flights were plentiful. (It might have been even more profitable if the Wrights hadn’t insisted that no contracts be made for flights on Sunday.) But eventually, the exhibition part of the business started to decline—and the profits that might still have come from it were cut down by ongoing illegal competition from patent infringers. More and more, the company’s transactions were with the United States Army and Navy as well as private buyers of planes. The first private plane sold was to Robert J. Collier, and others who wanted the thrill or prestige of owning a plane had been inquiring. The retail price of a plane was $5,000.

With aviation thus becoming more practical, the Wrights were receiving from their invention a form of reward they had never expected. They would now have wealth, not vast, but enough to enable them to look forward to the time when they might retire and work happily together on scientific research. They were making plans, too, for their new home on a seventeen-acre wooded tract they had named Hawthorn Hill, in the Dayton suburb of Oakwood. But tragic days were ahead. Early in May, shortly after visiting the new home site with other members of the family, Wilbur283 was taken ill. What at first was assumed to be a minor indisposition proved to be typhoid fever. Worn out from worries over protecting in patent litigation the rights he knew were his and his brother’s, he was not in condition to combat the disease. After an illness of three weeks, despite the best efforts of eminent specialists, early in the morning of Thursday, May 30, 1912, Wilbur Wright died. He was aged only forty-five years and forty-four days.

With aviation becoming more practical, the Wright brothers were getting a form of recognition from their invention that they never expected. They would now have some wealth, not a fortune, but enough to look forward to a time when they could retire and happily work together on scientific research. They were also making plans for their new home on a seventeen-acre wooded lot they named Hawthorn Hill, in the Dayton suburb of Oakwood. But tragic days lay ahead. Early in May, shortly after visiting the new home site with other family members, Wilbur283 fell ill. What was initially thought to be a minor issue turned out to be typhoid fever. Exhausted from worrying about protecting their rights in patent litigation, he wasn't in a condition to fight the illness. After three weeks of sickness, despite the best efforts of renowned specialists, early on the morning of Thursday, May 30, 1912, Wilbur Wright died. He was only forty-five years and forty-four days old.

Messages of condolence and expressions of the world’s loss poured in from two hemispheres, among them those from heads of governments.

Messages of condolence and feelings of the world's loss came in from both hemispheres, including those from government leaders.

Orville Wright succeeded his brother as president of The Wright Co.

Orville Wright took over as president of The Wright Co. after his brother.

In June, 1913, Grover Loening, a young man who had become acquainted with Wilbur at the time of the Hudson-Fulton exhibition flights, came to The Wright Co. as engineer, and then became factory manager. Loening had the distinction of being the first person in the United States to study aeronautical science in a university.

In June 1913, Grover Loening, a young man who had met Wilbur during the Hudson-Fulton exhibition flights, joined The Wright Co. as an engineer and later became the factory manager. Loening was notable for being the first person in the United States to study aeronautical science at a university.

Business affairs had been complicated earlier that year by the fact that Dayton had the worst flood in its history. The Wright factory was not under water but not many of the employees could reach the building. Among the hundreds of houses under water was the Wright home on Hawthorne Street. To Orville a serious part of the loss there was the damage to photographic negatives showing his and Wilbur’s progress toward flight. But the negative of the famous picture of the first power flight was not much harmed.

Business matters had gotten complicated earlier that year because Dayton experienced the worst flood in its history. The Wright factory wasn’t flooded, but many of the employees couldn’t get to work. Among the hundreds of homes that were flooded was the Wright house on Hawthorne Street. For Orville, a significant part of the loss was the damage to the photographic negatives that documented his and Wilbur’s progress toward flight. However, the negative of the famous photo of their first powered flight was not much affected.

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Accompanied by his sister, Orville made his last trip to Europe in 1913, on business relating to a patent suit in Germany. At about the same time he sanctioned the forming of a Wright company in England. Before Wilbur’s death, there had been opportunities for a company in England, but the brothers had held back because all the offers appeared to be purely stock promotions in which the names of members of the English nobility would appear as sponsors. The British company as finally organized did not make planes itself, but issued licenses for use of the patents. Within a year after it was formed the English company accepted from the British Government a flat payment for all claims against the government, for use of the Wright patents up to that time and during the remainder of the life of the basic patents. Though the amount paid was no trifling sum, the settlement was widely applauded by prominent Englishmen, among them Lord Northcliffe, as showing a generous attitude on the part of the patent owner—about as little as could have been compatible with full recognition of the priority of the Wrights’ invention.

Accompanied by his sister, Orville took his last trip to Europe in 1913 for business related to a patent lawsuit in Germany. Around the same time, he approved the establishment of a Wright company in England. Before Wilbur passed away, there had been opportunities for a company in England, but the brothers hesitated because all the offers seemed to be just stock promotions, using names of English nobility as backers. The British company, once organized, didn’t manufacture planes itself but issued licenses for the use of the patents. Within a year of its formation, the English company accepted a one-time payment from the British Government for all claims related to the Wright patents up to that point and for the remainder of the patents' lifespan. Although the amount paid was significant, the settlement was widely praised by notable English figures, including Lord Northcliffe, as a demonstration of generosity from the patent owner—about as minimal as could be considered while still acknowledging the Wrights’ invention as the original.

By this time, The Wright Co. had more applications to train student pilots than they could handle. Even a few young women wished to become pilots.

By this time, The Wright Co. had more applications to train student pilots than they could handle. Even a few young women wanted to become pilots.

Two capable students, of a somewhat earlier period, destined to go far in aviation, were Thomas D. Milling, later General Milling, of the United States Army Air Corps; and Henry H. Arnold, who during the Second World War was Lieutenant General Arnold, Commanding285 General of the Army Air Forces and Deputy Chief of Staff for Air.

Two talented students from an earlier time, destined to make significant contributions to aviation, were Thomas D. Milling, who later became General Milling in the United States Army Air Corps, and Henry H. Arnold, who during World War II was Lieutenant General Arnold, the Commanding General of the Army Air Forces and Deputy Chief of Staff for Air.

One unfortunate student pilot, who had begun his training at the Wright School in 1912, later got himself into much trouble. This man became one of the best flyers in the United States. As he had plenty of money he bought a plane of his own, and he used to give free exhibitions at his estate near Philadelphia. In one way or another he did much for aviation. But in 1917, when the United States entered the First World War, that young pilot refused to register in the draft and became notorious as a draft evader. His name? Grover Cleveland Bergdoll. The early Wright plane he had bought is today on exhibition at the Franklin Institute in Philadelphia. It is believed to be the only authentic Model B—the first model built by The Wright Co.—in existence.

One unfortunate student pilot, who started his training at the Wright School in 1912, later got into a lot of trouble. This man became one of the best flyers in the United States. Since he had plenty of money, he bought his own plane and often gave free exhibitions at his estate near Philadelphia. In various ways, he contributed a lot to aviation. But in 1917, when the United States entered World War I, that young pilot refused to register for the draft and became infamous as a draft evader. His name? Grover Cleveland Bergdoll. The early Wright plane he purchased is now on display at the Franklin Institute in Philadelphia. It's believed to be the only authentic Model B—the first model built by The Wright Co.—still in existence.

In 1914, Orville Wright had bought the stock of all other shareholders in The Wright Co., except that of his friend, Robert J. Collier, who, for sentimental reason, wished to retain his interest. Orville’s motive in acquiring almost complete ownership of the company had been as a step toward getting entirely out of business. Both he and Wilbur Wright had agreed to stay with the company for a period of years, not yet expired, and he could not honorably dispose of his own holdings so long as those with whom he had made the agreement were still in the company. But almost immediately after buying the shares of the others, he let it be known that he might be willing to sell his entire interest. To this, Collier, the only other shareholder, agreed. In 1915, Orville received an offer and gave an option to a small286 group of eastern capitalists that included William Boyce Thompson and Frank Manville, the latter president of the Johns-Manville Co. The deal was closed in October, 1915.

In 1914, Orville Wright purchased the shares of all the other shareholders in The Wright Co., except for his friend, Robert J. Collier, who wanted to keep his stake for sentimental reasons. Orville's aim in gaining nearly complete ownership of the company was to eventually leave the business entirely. Both he and Wilbur Wright had agreed to remain with the company for a specified number of years, which had not yet passed, and he couldn't ethically sell his shares as long as the others who had made the agreement were still involved. However, shortly after acquiring the shares from the others, he indicated that he might be open to selling his entire stake. Collier, the only remaining shareholder, agreed to this possibility. In 1915, Orville received an offer and granted an option to a small group of eastern investors, which included William Boyce Thompson and Frank Manville, the latter being the president of the Johns-Manville Co. The transaction was finalized in October 1915.

Just after Orville had given his option to the eastern syndicate, Robert J. Collier came to tell him an important piece of news, and to urge him not to sell just yet.

Just after Orville had handed over his option to the eastern syndicate, Robert J. Collier came to share some important news with him and to encourage him not to sell just yet.

Collier had been having some talks with his friend, the wealthy Harry Payne Whitney, and had urged upon him the idea of doing what Collier thought would be a wonderful piece of philanthropy that would mean much for the future of aviation in the United States. What Collier wanted him to do was to buy the stock of The Wright Co., thus gaining ownership of the Wright patents, and then immediately make the patents free to anyone in the United States who wished to manufacture airplanes.

Collier had been talking with his friend, the wealthy Harry Payne Whitney, and had convinced him of the idea of doing what Collier believed would be a fantastic act of philanthropy that would greatly impact the future of aviation in the United States. What Collier wanted him to do was buy the stock of The Wright Co., thus gaining ownership of the Wright patents, and then immediately make the patents available for free to anyone in the United States who wanted to manufacture airplanes.

Whitney was willing to carry out the Collier suggestion. To do so he was also ready to pay more for the stock of The Wright Co. than the syndicate had offered.

Whitney was willing to go along with the Collier suggestion. To do this, he was also ready to pay more for the stock of The Wright Co. than what the syndicate had offered.

But Orville explained to Collier that the option already given was legally drawn and the holders presumably wished to exercise it.

But Orville explained to Collier that the option already provided was legally drafted and the holders probably wanted to use it.

Collier’s daring idea and Whitney’s generous acceptance of it had come just a little too late.

Collier’s bold idea and Whitney’s willing acceptance of it had arrived just a bit too late.


The Wrights had found that patents covering the basic features of their invention were not enough protection against infringers. Indeed, having the technical details on file in the Patent Office, where anyone who desired might see them, was, in a way, to the advantage of those who would help themselves to an inventor’s work and ideas. Only a decision in the courts could determine the justice of an inventor’s claims. But the courts work slowly and legal procedure is expensive. Except for their good fortune—never contemplated when they started—in realizing substantial sums from their invention, the brothers might not have been financially able to carry on the fight that finally gave them world-wide recognition as the first to contrive a successful flying-machine.

The Wright brothers discovered that having patents for the core features of their invention didn’t provide enough protection against copycats. In fact, having the technical details available at the Patent Office, where anyone could access them, actually benefited those who wanted to take advantage of an inventor's work and ideas. Only a court ruling could determine the validity of an inventor's claims. However, the court system is slow and legal proceedings can be costly. If it weren’t for their unexpected good fortune—making significant money from their invention—the brothers might not have been financially equipped to continue the battle that ultimately earned them worldwide recognition as the first to create a successful flying machine.

Altogether the brothers had active part in a dozen different suits in the United States against infringers—and there were suits in France and Germany in each of which about a dozen infringers were involved. Most of the suits in the United States did not go beyond the early stages, as the infringers were not disposed to continue after a preliminary injunction had been issued. But three suits were of special importance. One of these was against Louis Paulhan, French aviator,288 who was about to give exhibitions in the United States, using planes made in France. Another was against Claude Grahame-White, English aviator, also about to give exhibitions in the United States with planes that infringed the Wright patents. The most important suit of all was against the Herring-Curtiss Co. and Glenn H. Curtiss. This case was bitterly contested and was carried up to the U. S. Court of Appeals. It was brought by the Wright brothers, late in 1909, but The Wright Co., formed shortly afterward, succeeded the brothers as complainants.

Overall, the brothers were actively involved in about a dozen different lawsuits in the United States against infringers—and there were lawsuits in France and Germany, each involving around a dozen infringers. Most of the cases in the United States didn't progress beyond the early stages, as the infringers were not willing to continue after a preliminary injunction was issued. However, three cases were particularly significant. One was against Louis Paulhan, a French aviator, who was about to give exhibitions in the United States using planes made in France. Another was against Claude Grahame-White, an English aviator, also set to give exhibitions in the United States with planes that violated the Wright patents. The most important case of all was against the Herring-Curtiss Co. and Glenn H. Curtiss. This case was fiercely contested and went up to the U.S. Court of Appeals. It was initiated by the Wright brothers in late 1909, but The Wright Co., which was formed shortly after, took over as the complainants.

Because of the importance of this suit in aviation history, it is worth while to examine the background of the relations between the Wrights and Glenn Curtiss. The Wrights’ personal acquaintance with Curtiss began in May, 1906, when he wrote to them in regard to the light motors of which he was a manufacturer. Then in early September, 1906, Curtiss visited the Wright office and workshop. He was brought there by his friend, Captain Thomas S. Baldwin, a well-known aeronaut, who was giving exhibition flights in Dayton with his dirigible balloon on which he used a motor he had persuaded Curtiss to build for him. It was to make repairs on that motor that Curtiss had come to Dayton.

Because this lawsuit is significant in aviation history, it's important to look into the background of the relationship between the Wrights and Glenn Curtiss. The Wrights first met Curtiss in May 1906 when he reached out to them about the lightweight engines he was manufacturing. Then, in early September 1906, Curtiss came to the Wright office and workshop. He was brought there by his friend, Captain Thomas S. Baldwin, a well-known aeronaut, who was performing exhibition flights in Dayton with his dirigible balloon, using a motor that he had convinced Curtiss to build for him. Curtiss had come to Dayton to make repairs on that motor.

After that meeting, the four men, Curtiss, Baldwin, and the Wrights, were together much of the time for several days. When in response to questions about their work, the Wrights showed a number of photographs of their flights made at the Huffman pasture during the two previous years, Curtiss seemed much astonished. He remarked that it was the first time he had been able289 to believe anyone had actually been in the air with a flying-machine.

After that meeting, the four men—Curtiss, Baldwin, and the Wright brothers—spent a lot of time together over the next few days. When the Wrights shared some photographs of their flights at Huffman Prairie from the past two years in response to questions about their work, Curtiss appeared quite surprised. He said it was the first time he could actually believe that someone had been in the air with a flying machine.

Long afterward, in an interview in the New York Times (February 28, 1914), Baldwin recalled the many talks he and Glenn Curtiss had with the Wrights in that fall of 1906. “I sometimes suggested to Curtiss,” Baldwin told the interviewer, “that he was asking too many questions, but he kept right on. The Wrights had the frankness of schoolboys in it all and had a rare confidence in us. I am sure Curtiss at that time never thought of taking up flying.”

Long after, in an interview with the New York Times (February 28, 1914), Baldwin remembered the many conversations he and Glenn Curtiss had with the Wright brothers in the fall of 1906. “I sometimes told Curtiss,” Baldwin said to the interviewer, “that he was asking too many questions, but he just kept going. The Wrights were as open as schoolboys and had a unique confidence in us. I’m sure Curtiss never even considered taking up flying back then.”

A year after the Wrights’ first meetings with Curtiss, in October, 1907, the Aerial Experiment Association was formed by Alexander Graham Bell and others, with headquarters first in Nova Scotia and later at Hammondsport, N. Y., where Curtiss lived. He became “Director of Experiments.” This was the first time Curtiss had been directly connected with aviation except as a manufacturer of motors, and three months later, a letter he wrote to the Wrights indicated that motors rather than aviation were still his chief interest. “I just wish to keep in touch with you,” he wrote, “and let you know that we have been making considerable progress in engine construction.” After listing and describing the various engines he was building, he proposed to furnish to the Wrights “gratis” one of his fifty-horsepower engines. But the offer was not accepted. The letter mentioned that Captain Baldwin was a “permanent fixture in this establishment”—a fact not without importance, considering information that Baldwin was later to reveal. Further on in the letter, Curtiss told of Dr. Bell’s reading290 to the members of the Aerial Experiment Association the United States Government’s specifications for the purchase of a flying-machine, and added: “You, of course, are the only persons who could come anywhere near doing what is required.”

A year after the Wrights’ initial meetings with Curtiss, in October 1907, the Aerial Experiment Association was established by Alexander Graham Bell and others, first based in Nova Scotia and later in Hammondsport, N.Y., where Curtiss lived. He was appointed "Director of Experiments." This marked Curtiss's first direct involvement in aviation beyond being a manufacturer of engines, and three months later, a letter he wrote to the Wrights showed that his primary focus was still on engines rather than aviation. “I just want to keep in touch with you,” he wrote, “and let you know that we've been making significant progress in engine construction.” After listing and describing the various engines he was building, he offered to supply the Wrights “for free” one of his fifty-horsepower engines. However, they did not accept the offer. The letter noted that Captain Baldwin was a “permanent fixture in this establishment”—a detail that would prove significant given the information Baldwin would later disclose. Furthermore, in the letter, Curtiss mentioned that Dr. Bell read to the members of the Aerial Experiment Association the specifications from the U.S. Government for purchasing a flying machine, adding: “You, of course, are the only ones who could come close to meeting the requirements.”

About a fortnight after receipt of that letter from Curtiss, the Wrights got another letter dated January 15, 1908, written on Aerial Experiment Association stationery, and signed by Lieutenant T. Selfridge, whose name appeared on the letterhead as secretary of the association. (This was the same Selfridge who was killed a few months later in the tragic airplane accident at Fort Myer.) In that letter, Selfridge, on behalf of the Experiment Association, said:

About two weeks after getting that letter from Curtiss, the Wrights received another letter dated January 15, 1908. It was written on Aerial Experiment Association letterhead and signed by Lieutenant T. Selfridge, whose name was listed as the secretary of the association. (This is the same Selfridge who tragically died a few months later in the airplane accident at Fort Myer.) In that letter, Selfridge, representing the Experiment Association, said:

I am taking the liberty of writing you and asking your advice on certain points connected with gliding experiments, or rather glider construction, which we started here last Monday.

I’m reaching out to ask for your advice on some aspects related to our gliding experiments, or more specifically, glider construction, which we began here last Monday.

Will you kindly tell me what results you obtained on the travel of the center of pressure both on aerocurves and aeroplanes?

Will you please let me know what results you got on the movement of the center of pressure for both airfoils and airplanes?

Also, what is a good, efficient method of constructing the ribs of the surfaces so that they will be light and yet strong enough to maintain their curvature under ordinary conditions, and a good means of fastening them to the cloth and upper lateral cords of the frame?

Also, what is an effective way to build the ribs of the surfaces so that they are lightweight yet strong enough to hold their shape under normal conditions, and a reliable method to attach them to the fabric and the upper side cords of the frame?

I hope I am not imposing too much by asking you these questions.

I hope I'm not putting too much pressure on you by asking these questions.

Supposing the information would be used only for scientific purposes, the Wrights obligingly replied at once as follows:

Supposing the information would be used only for scientific purposes, the Wrights kindly replied right away as follows:

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You will find much of the information you desire in the addresses of our Mr. Wilbur Wright before the Western Society of Engineers, published in the Journals of the Society of December, 1901, and August, 1903.

You will find a lot of the information you're looking for in the speeches given by our Mr. Wilbur Wright before the Western Society of Engineers, published in the Society's Journals from December 1901 and August 1903.

The travel of the center of pressure on aeroplanes is from the center at 90 degrees, toward the front edge as the angle becomes smaller. The center of pressure on a curved surface is approximately at its center at 90 degrees, moves forward as the angle is decreased until a critical angle is reached, after which it reverses, and moves toward the rear edge. The critical angle varies for different shaped curves, but is generally reached at some angle between 12 and 18 degrees. With the angles used in gliding flight the travel will be between the center of the surface and a point one-third back from the front edge.

The center of pressure movement on airplanes starts from the center at a 90-degree angle and shifts toward the front edge as the angle decreases. On a curved surface, the center of pressure is roughly at its center at a 90-degree angle and moves forward as the angle gets smaller until it reaches a critical angle. After that, it reverses direction and shifts toward the rear edge. This critical angle changes depending on the shape of the curve, but it's typically found between 12 and 18 degrees. For the angles used in gliding flight, the center of pressure will move between the center of the surface and a point one-third of the way back from the front edge.

The methods of construction used in our gliders are fully described in an article by Mr. Chanute in the Revue des Sciences in 1903 (we do not remember the month) and in the specifications of our United States patent, No. 821,393.

The construction methods used in our gliders are thoroughly detailed in an article by Mr. Chanute in the Revue des Sciences from 1903 (we can’t recall the month) and in the specifications of our U.S. patent, No. 821,393.

The ribs of our gliders were made of second growth ash, steamed and bent to shape.

The ribs of our gliders were crafted from second-growth ash, steamed and shaped to fit.

Selfridge replied in a few days saying he had been able to obtain a copy of the patent and would endeavor to get the other references the Wrights had supplied.

Selfridge got back a few days later, saying he had managed to get a copy of the patent and would try to obtain the other references the Wrights provided.

The data must have been useful to the Aerial Experiment Association for early the following summer, Glenn Curtiss, “Director of Experiments” had a power-driven airplane, called the “June Bug,” in which he made a flight on July 4, 1908, at Hammondsport. That flight created the belief in the minds of many who were not fully informed that the Aerial Experiment Association must have done an amazing job of original research. This belief was encouraged by the fact that after the Aerial292 Experiment Association began building and experimenting with flying-machines, using much information they had obtained from the Wrights, they neglected, in public statements about their work, to so much as mention the Wright brothers.

The information must have been valuable to the Aerial Experiment Association, as by the next summer, Glenn Curtiss, the “Director of Experiments,” had a power-driven airplane called the “June Bug.” He made a flight on July 4, 1908, in Hammondsport. That flight led many who were not fully informed to believe that the Aerial Experiment Association had done an incredible job of original research. This belief was supported by the fact that after the Aerial292 Experiment Association started building and testing flying machines, using a lot of information they had gotten from the Wrights, they failed to mention the Wright brothers in their public statements about their work.

Soon after the report of the flight of the “June Bug,” there appeared in the press a statement that the Aerial Experiment Association was disbanding, and that Glenn H. Curtiss was going to engage in exhibition flying. That news led Orville Wright to send to Curtiss the following letter:

Soon after the news about the "June Bug" flight came out, the press announced that the Aerial Experiment Association was dissolving and that Glenn H. Curtiss was planning to focus on exhibition flying. This prompted Orville Wright to send Curtiss the following letter:

I learn from the Scientific American that your “June Bug” has movable surfaces at the tips of the wings, adjustable to different angles on the right and left sides for maintaining the lateral balance. In our letter to Lieutenant Selfridge of January 18th, replying to his of the 15th, in which he asked for information on the construction of flyers, we referred him to several publications containing descriptions of the structural features of our machines, and to our U. S. patent No. 821,393. We did not intend, of course, to give permission to use the patented features of our machine for exhibitions or in a commercial way.

I read in Scientific American that your “June Bug” has movable surfaces at the tips of its wings, which can adjust to different angles on the right and left sides to keep balance. In our letter to Lieutenant Selfridge on January 18th, responding to his from the 15th, where he asked for information about building flyers, we directed him to several publications that describe the structural features of our machines and to our U.S. patent No. 821,393. We didn't intend to grant permission to use the patented features of our machine for exhibitions or commercial purposes, of course.

This patent broadly covers the combination of sustaining surfaces to the right and left of the center of a flying-machine adjustable to different angles, with vertical surfaces adjustable to correct inequalities in the horizontal resistances of the differently adjusted wings. Claim 14 of our patent No. 821,393 specifically covers the combination which we are informed you are using. We believe it will be very difficult to develop a successful machine without the use of some of the features covered in this patent.

This patent generally includes the setup of supportive surfaces on both sides of the center of a flying machine that can be adjusted to various angles, along with vertical surfaces that can be modified to balance out the differences in horizontal resistance caused by the differently adjusted wings. Claim 14 of our patent No. 821,393 specifically addresses the combination that we understand you are currently using. We think it will be quite challenging to create a successful machine without utilizing some of the features outlined in this patent.

The commercial part of our business is taking so much293 of our time that we have not been able to undertake public exhibitions. If it is your desire to enter the exhibition business, we would be glad to take up the matter of a license to operate under our patents for that purpose.

The commercial side of our business is taking up so much of our time that we haven't been able to organize public exhibitions. If you're interested in getting into the exhibition business, we would be happy to discuss obtaining a license to operate under our patents for that purpose.

Curtiss replied that, contrary to newspaper reports, he did not expect to do anything in the way of exhibitions; that his flights had been in connection with the Aerial Experiment Association’s work. The matter of the patents he had referred, he said, to the Secretary of the Association.

Curtiss replied that, contrary to what the newspapers were saying, he did not plan to participate in any exhibitions; his flights were related to the Aerial Experiment Association's work. He mentioned that he had passed the issue of the patents onto the Secretary of the Association.

A few weeks later, when Orville went to Washington in preparation for the Fort Myer tests of the Wright machine, Captain Baldwin was there teaching Army officers to operate a new dirigible balloon for which Curtiss had furnished the motor. In speaking of the experiments in aviation being carried on by Curtiss and other members of the Aerial Experiment Association at Hammondsport, Baldwin said warningly to Orville: “I hear them talking.” He went on to caution Orville that the work those men were doing would infringe the Wright patents.

A few weeks later, when Orville went to Washington to prepare for the Fort Myer tests of the Wright machine, Captain Baldwin was there teaching Army officers how to operate a new dirigible balloon that Curtiss had supplied the motor for. While discussing the aviation experiments being conducted by Curtiss and other members of the Aerial Experiment Association in Hammondsport, Baldwin warned Orville, “I hear them talking.” He went on to advise Orville that the work those men were doing could violate the Wright patents.

By the following year, Curtiss had formed a commercial company, The Herring-Curtiss Co., to make or exhibit airplanes.

By the next year, Curtiss had set up a commercial company, The Herring-Curtiss Co., to produce or showcase airplanes.

On January 3, 1910, Judge John R. Hazel, of the Federal Circuit Court, at Buffalo, New York, granted a temporary restraining order against The Herring-Curtiss Co. and Glenn H. Curtiss to prevent them from infringement of the Wright patents. In handing down his decision, Judge Hazel said:

On January 3, 1910, Judge John R. Hazel of the Federal Circuit Court in Buffalo, New York, issued a temporary restraining order against The Herring-Curtiss Co. and Glenn H. Curtiss to stop them from infringing on the Wright patents. In delivering his decision, Judge Hazel stated:

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It appears that the defendant Curtiss had notice of the success of the Wright machine, and that a patent had been issued in 1906. Indeed, no one interfered with the rights of the patentees by constructing machines similar to theirs until in July, 1908, when Curtiss exhibited a flying-machine which he called “The June Bug.” He was immediately notified by the patentees that such machine, with its movable surfaces at the tips, or wings, infringed the patent in suit, and he replied that he did not intend to publicly exhibit the machine for profit, but merely was engaged in exhibiting it for scientific purposes as a member of the Aerial Experiment Association. To this the patentees did not object. Subsequently, however, the machine, with supplementary planes placed midway between the upper and lower aeroplanes, was publicly exhibited by the defendant corporation, and used by Curtiss in aerial flights for prizes and emoluments. It further appears that the defendants now threaten to continue such use for gain and profit, and to engage in the manufacture and sale of such infringing machine, thereby becoming an active rival of complainant in the business of constructing flying-machines embodying the claims in suit, but such use of the infringing machine it is the duty of this Court on the papers presented to enjoin.

It seems that the defendant Curtiss was aware of the success of the Wright machine and that a patent had been granted in 1906. In fact, no one interfered with the patent holders' rights by creating similar machines until July 1908, when Curtiss showed off a flying machine he named “The June Bug.” He was quickly informed by the patent holders that this machine, with its movable surfaces at the tips, or wings, violated the existing patent, and he responded that he didn’t plan to publicly showcase the machine for profit, but was simply demonstrating it for scientific purposes as a member of the Aerial Experiment Association. The patent holders did not object to this. However, later on, the machine, with additional planes added between the upper and lower wings, was publicly displayed by the defendant corporation, and Curtiss used it in aerial competitions for prizes and earnings. It also seems that the defendants are now threatening to keep using the machine for profit and to start manufacturing and selling similar infringing machines, making them a direct competitor to the complainant in the business of building flying machines that include the contested claims. Therefore, it is the Court's responsibility, based on the documents submitted, to prohibit the use of the infringing machine.

Then, in February, 1910, Judge Learned Hand, in the Federal Circuit Court, at New York, issued an injunction to prevent the French aviator, Louis Paulhan, from making exhibitions in the United States unless he would put up an indemnity to the amount of $25,000. The Court declared that both the Bleriot and Farman planes that the defendant was planning to use were infringements of the Wright patents.

Then, in February 1910, Judge Learned Hand, in the Federal Circuit Court in New York, issued an injunction to stop the French aviator, Louis Paulhan, from performing exhibitions in the United States unless he paid an indemnity of $25,000. The Court stated that both the Bleriot and Farman planes that the defendant planned to use infringed on the Wright patents.

Not until January 13, 1914, did the U. S. Circuit Court of Appeals hand down its decision in the Wright295 suit against Curtiss. The decision was in favor of The Wright Co.

Not until January 13, 1914, did the U.S. Circuit Court of Appeals issue its decision in the Wright295 lawsuit against Curtiss. The ruling was in favor of The Wright Co.

In his interview in the New York Times, already quoted from, published in the New York Times, February 28, 1914, Captain Thomas S. Baldwin, though a close associate of Curtiss, heartily endorsed the final decision in the Wright vs. Curtiss case. Referring to that decision he told the interviewer:

In his interview in the New York Times, already quoted, published in the New York Times, February 28, 1914, Captain Thomas S. Baldwin, despite being a close associate of Curtiss, fully supported the final decision in the Wright vs. Curtiss case. Talking about that decision, he told the interviewer:

“It is high time for all the rest of us to step up and admit that not a one of us ever would have got off the ground in flight if the Wrights had not unlocked the secret for us.

“It’s about time for the rest of us to step up and acknowledge that none of us would have ever taken to the skies if the Wright brothers hadn't figured it out for us.

“I want to go on record as saying that the Wrights are fully entitled to the decision they have at last received....

“I want to officially say that the Wrights are completely entitled to the decision they have finally received....

“Mr. Curtiss is a friend of mine today,” said Baldwin, “and I have served in his companies as a director. But it is due to the Wrights as a simple matter of justice to have the story of the actual genesis of flight fully established.”

“Mr. Curtiss is a friend of mine now,” said Baldwin, “and I have served as a director in his companies. But it's only fair to the Wrights that the true story of how flight came to be is completely recognized.”

By that time, Captain Baldwin had abandoned the dirigible balloon for the airplane, and thus he, too, had been an infringer of the Wright patent. But as his public statements indicated, he showed an attitude quite different from that of most other infringers. Glenn Martin was another, like Baldwin, who acknowledged indebtedness to the Wrights.

By that time, Captain Baldwin had moved on from the dirigible balloon to the airplane, making him an infringer of the Wright patent as well. However, his public statements showed that he had a very different attitude compared to most other infringers. Glenn Martin was another person, like Baldwin, who recognized his debt to the Wrights.

After the Wrights had won their important suit against Curtiss in the Circuit Court of Appeals, Curtiss made no secret of the fact that he still hoped to find a possible loophole to get around the Wright patent. Since296 the decision of the Court enjoined him from using two ailerons operating simultaneously in opposite directions, he thought perhaps he could escape penalty by using just one aileron at a time, while the other remained inoperative. This, however, was covered by Claim 1 of the Wright patent, if the claim were given a liberal interpretation, as the Court had said the Wright Patent was entitled to, on account of the Wrights being the pioneers in the art of flying. But Claim 1 had not been cited in the former suits, and so had not as yet been adjudicated. If Curtiss could just show, or seem to show, in some way that the Wrights were not exactly pioneers, that some other machine capable of flight antedated the Wright machine, then he would be in a stronger position to defend himself against Claim 1 if it should be cited against him. Anticipating a suit, Curtiss took astounding means to prepare for combating it—as will appear.

After the Wrights won their important lawsuit against Curtiss in the Circuit Court of Appeals, Curtiss openly expressed that he was still looking for a way to bypass the Wright patent. Since the Court's decision prohibited him from using two ailerons that worked simultaneously in opposite directions, he thought he might avoid penalties by using just one aileron at a time while leaving the other one inactive. However, this scenario was addressed in Claim 1 of the Wright patent, especially if the claim was interpreted broadly, as the Court suggested it should be, given that the Wrights were the pioneers in aviation. But Claim 1 hadn't been cited in the earlier lawsuits, so it hadn't been decided yet. If Curtiss could somehow demonstrate that the Wrights weren't exactly pioneers and that some other flying machine predated the Wright machine, he would be in a better position to defend himself against Claim 1 if it was brought against him. Anticipating a lawsuit, Curtiss took extraordinary measures to get ready to fight it—as will be revealed.

But after all the evidence was taken in that case and just before the case was to come to trial, Orville Wright sold his interest in The Wright Co. to New York capitalists. Curtiss then contrived to gain delay after delay by approaching the new owners with proposals of settlement. These negotiations dragged on until the United States entered the First World War, and the Manufacturers Aircraft Association was organized for cross-licensing manufacturers who were building machines for the United States Government. Through this cross-licensing agreement, The Wright Co. received royalty on all planes manufactured for the Government. Consequently, this last case against Curtiss never came to trial.

But after all the evidence was collected in that case and just before it was set to go to trial, Orville Wright sold his share in The Wright Co. to New York investors. Curtiss then managed to gain delay after delay by approaching the new owners with offers to settle. These negotiations dragged on until the United States entered World War I, and the Manufacturers Aircraft Association was formed for cross-licensing manufacturers building planes for the U.S. Government. Through this cross-licensing agreement, The Wright Co. received royalties on all planes made for the Government. As a result, this last case against Curtiss never went to trial.

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The Wrights won their patent suits, too, in the highest courts of both Germany and France. The court in Germany made the comment in its oral decision that their discovery that a rear rudder was a balancing device rather than a steering device should entitle them to a basic patent.

The Wrights also won their patent lawsuits in the highest courts of Germany and France. The German court noted in its oral decision that their finding that a rear rudder serves as a balancing device instead of a steering device should qualify them for a fundamental patent.

Without going into too much detail about the various patent suits, the important point is that the priority of the Wright patents was sustained by the courts in both the United States and Europe. Every airplane that flies, in any part of the world, even today, does so by use of devices and discoveries first made by the Wright brothers.

Without getting into too much detail about the different patent lawsuits, the key takeaway is that the courts in both the United States and Europe upheld the priority of the Wright patents. Every airplane that flies anywhere in the world, even today, relies on the devices and inventions first created by the Wright brothers.

These patent suits were a terrible ordeal for the attorneys and judges concerned, for aviation was so new that many of the technical terms were beyond the knowledge of nearly everyone. It was as if lawyers and judges had to learn a new language and take a course in the theoretical side of aeronautical engineering as they went along.

These patent lawsuits were a tough challenge for the attorneys and judges involved because aviation was so new that most people were unfamiliar with many of the technical terms. It was like lawyers and judges had to learn a new language and take a course in the theoretical aspects of aeronautical engineering on the fly.

In a case against a foreign aviator, Wilbur Wright was called upon in Court to explain the function and operation of a rudder when an aeroplane is making a circle. Wilbur got hold of a piece of string and a fragment of chalk and went to a blackboard, where he made it clear to the Judge that when a machine is making a turn the pressure is on the opposite side of an aeroplane rudder from what it is on a ship’s or a dirigible’s rudder when they are making the same turn.

In a case involving a foreign pilot, Wilbur Wright was asked in court to explain how a rudder works and operates when an airplane is circling. Wilbur grabbed a piece of string and a small piece of chalk, went to a blackboard, and clearly demonstrated to the judge that when an aircraft is making a turn, the pressure on the rudder is on the opposite side compared to that of a ship or a dirigible making the same turn.

After the Judge had issued a temporary restraining order, at the end of the day’s proceedings, Clarence J.298 Shearn, attorney for the defendant, gloomily remarked: “If it hadn’t been for Wright and that damned piece of string, we would have won.”

After the judge issued a temporary restraining order at the end of the proceedings, Clarence J.298 Shearn, the defendant's attorney, said gloomily, “If it hadn’t been for Wright and that damn piece of string, we would have won.”

One bit of testimony in another case was in regard to the accuracy of observations of men who fly airplanes. To show the inaccuracy of most people’s observations on phenomena having to do with physical laws, Wilbur used for illustration what a man thinks happens when riding a bicycle.

One piece of evidence in another case was about how accurately people who fly planes observe things. To illustrate how inaccurate most people's observations are regarding physical laws, Wilbur used the example of what someone thinks happens when they ride a bicycle.

“I have asked dozens of bicycle riders,” said Wilbur, “how they turn a bicycle to the left. I have never found a single person who stated all the facts correctly when first asked. They almost invariably said that, to turn to the left, they turned the handlebar to the left and as a result made a turn to the left. But on further questioning them, some would agree that they first turned the handlebar a little to the right, and then as the machine became inclined to the left, they turned the handlebar to the left and made the circle, inclining inwardly. To a scientific student it is very clear that without the preliminary movement of the handlebar to the right, a movement of the handlebar to the left would cause the bicycle to run out from under the man, who would continue headlong in his original direction. Yet I have found many people who would deny having ever noticed the preliminary movement of the handlebar to the right. I have never found a non-scientific bicycle rider who had particularly noticed it and spoke of it from his own conscious observation and initiative. I found the same condition among aviators with whom I have flown. Some have almost no consciousness of whether the machine299 is rising a little or descending a little, or whether it is sliding somewhat to the right or to the left. The ability to notice these things, even in small degrees, is the main quality which distinguishes skilled aviators from novices and born flyers from men who will never be able to handle flying-machines competently.”

“I’ve asked dozens of bicycle riders,” said Wilbur, “how they turn a bicycle to the left. I’ve never found a single person who stated everything correctly when first asked. They almost always said that to turn left, they simply turned the handlebar left and that caused the bike to turn left. But when I probed deeper, some would admit that they first turned the handlebar a bit to the right, and as the bike leaned to the left, they then turned the handlebar left to complete the circle, leaning inward. For someone studying science, it’s clear that without that initial movement of the handlebar to the right, turning it left would make the bike tip away from the rider, who would continue moving straight ahead. Yet, I’ve encountered many people who deny ever noticing the initial right movement of the handlebar. I’ve never met a non-scientific cyclist who really paid attention to it or talked about it from their own observation. I found a similar situation with aviators I’ve flown with. Some have almost no awareness of whether the aircraft is climbing or descending a bit, or if it’s drifting slightly to the right or left. The ability to notice these subtleties, even in small amounts, is the key trait that sets skilled aviators apart from beginners and those who are naturally good at flying from those who will never be able to operate aircraft competently.”

Even though the Wrights won all their patent suits, collecting royalties proved to be something else!

Even though the Wrights won all their patent lawsuits, getting royalties turned out to be a whole different challenge!


Why was the original Wright airplane, the first flying-machine in the world capable of flight, deposited in the Science Museum at South Kensington, London, England, rather than in the United States National Museum, administered by the Smithsonian Institution, at Washington? Why should Exhibit A of one of the greatest of all American scientific achievements be in exile?

Why? is the original Wright airplane, the first flying machine in the world that could actually fly, displayed in the Science Museum in South Kensington, London, England, instead of the United States National Museum run by the Smithsonian Institution in Washington? Why is Exhibit A of one of the greatest American scientific achievements forced to be in exile?

For the answer to these questions, puzzling to a vast number of patriotic Americans, we must trace events back a number of years.

For the answers to these questions, which puzzle many patriotic Americans, we need to look back several years.

It will be remembered that Dr. Samuel P. Langley, while Director and Secretary of the Smithsonian, with a $50,000 government fund at his disposal for experiments (besides $20,000 from the Hodgkins fund), had failed in his attempts to build a successful man-carrying flying-machine. At each trial, in 1903, his machine promptly fell from its launching platform into the Potomac. Doubtless Langley’s failure was a bitter disappointment to him—all the more so because he was derided in the public press for having even tried what was commonly believed to be impossible. But when the Wrights flew, only nine days after Langley’s final unsuccessful trial, they in a measure saved the Langley301 reputation. No one could any longer say that he was a “crank.” The Wrights had vindicated his belief that man could fly.

It should be noted that Dr. Samuel P. Langley, while serving as Director and Secretary of the Smithsonian, had a $50,000 government fund for experiments (along with $20,000 from the Hodgkins fund) but failed to build a successful flying machine that could carry a person. In every attempt in 1903, his machine crashed off its launching platform into the Potomac. Langley’s failure was undoubtedly a huge disappointment for him, especially since he faced ridicule in the press for attempting what many thought was impossible. However, when the Wright brothers took flight just nine days after Langley’s last unsuccessful attempt, they somewhat salvaged Langley’s reputation. No one could claim he was a “crank” anymore. The Wrights confirmed his belief that man could fly.

Langley uttered no word to minimize the importance of the Wrights’ feat. Nor was anything unfriendly toward Langley ever said by either of the Wrights. On the contrary, the Wrights more than once gave Langley credit for having been a source of inspiration to them, from the simple fact that he, an eminent scientist, considered human flight possible. Indeed, the Wrights took advantage of an opportunity to save the Langley name from being made ridiculous. After Dr. Langley’s death, the Smithsonian Regents ordered the erection in the Smithsonian building of a tablet in his memory. The plan was to inscribe on the tablet the “Langley Law,” as Langley’s chief contribution to aeronautical science. Dr. Charles D. Walcott, who succeeded Dr. Langley as Secretary of the Smithsonian, sent the proposed inscription to the Wrights for their opinion of it. Wilbur Wright replied that it would be both unwise and unfair to Langley to rest his reputation in aerodynamics especially on that so-called Langley Law or upon the computations which gave rise to it. The Wrights knew at that time, as all aeronautical engineers know today, that the Langley Law was simply a mistake and not true. Because of what Wilbur Wright pointed out in his letter, the Langley Law was omitted from the memorial tablet. But, having eliminated the discredited Law that was Langley’s, Dr. Walcott then put in its place on the tablet an inscription crediting Langley for a discovery that was not his! The inscription claimed302 for Langley that he had “discovered the relations of speed and angle of inclination to the lifting power of surfaces moving in the air.” (His tables of air pressures had been antedated by both Duchemin and Lilienthal.)

Langley said nothing to downplay the significance of the Wrights' achievement. Likewise, neither of the Wrights ever spoke unfavorably about Langley. On the contrary, the Wrights often credited Langley as a source of inspiration because he, a respected scientist, believed that human flight was achievable. In fact, the Wrights seized the opportunity to protect Langley’s reputation from being ridiculed. After Dr. Langley's death, the Smithsonian Regents decided to put up a plaque in his honor inside the Smithsonian building. The plan was to engrave the “Langley Law” on the plaque as Langley’s main contribution to aeronautical science. Dr. Charles D. Walcott, who took over for Dr. Langley as Secretary of the Smithsonian, sent the proposed inscription to the Wrights for their feedback. Wilbur Wright responded that it would be both unwise and unfair to Langley to base his aerodynamics reputation solely on the so-called Langley Law or the calculations that led to it. The Wrights knew then, as all aeronautical engineers do today, that the Langley Law was simply an error and not accurate. Because of Wilbur Wright’s comments in his letter, the Langley Law was removed from the memorial plaque. However, after removing the discredited Law that had been associated with Langley, Dr. Walcott replaced it with an inscription incorrectly attributing a discovery to Langley that he did not make! The inscription claimed that Langley had “discovered the relations of speed and angle of inclination to the lifting power of surfaces moving in the air.” (His tables of air pressures had actually been published before those of both Duchemin and Lilienthal.)

This tendency to claim for Langley what was not his was destined to show itself in a more pernicious form in later acts of Dr. Walcott. If Langley had lived, the relations between the Smithsonian and the Wrights would doubtless have continued to be marked by mutual respect and consideration. But after Dr. Langley’s death, the attitude of the Smithsonian began to change. The Institution started a subtle campaign to belittle the Wrights, to try to take from them much of the credit for having both produced and demonstrated the first machine capable of flight, and for having done the original research that made the machine possible. Indeed, the Institution even went so far as to issue false and misleading statements.

This tendency to attribute to Langley what wasn’t actually his was set to manifest in a more harmful way in Dr. Walcott's later actions. If Langley had lived, the relationship between the Smithsonian and the Wrights would likely have continued to be characterized by mutual respect and consideration. However, after Dr. Langley’s death, the Smithsonian's attitude began to shift. The Institution started a subtle campaign to undermine the Wrights, attempting to take away much of the credit for creating and demonstrating the first machine capable of flight, as well as for the original research that made the machine possible. In fact, the Institution even went so far as to release false and misleading statements.

One of these was in connection with the first award of a Langley medal, publicly presented to the Wrights in February, 1910. In referring to that presentation, the Annual Report for the year 1910 (page 23), by the Secretary of the Institution, quoted Wilbur Wright as making a statement not made by him on that occasion at all, but used in a different connection at another time. The improper use of that quotation helped to create a false impression over the world that the Wrights had acknowledged indebtedness to Langley’s scientific work. The truth was that Wilbur Wright had in a private letter mentioned indebtedness to Langley, not for scientific303 data but for the fact that it was encouraging to know that the head of a scientific institution believed human flight to be possible. (Langley’s published work in the field of aerodynamics dealt with measurements of air pressures on flat surfaces only—and later experiments proved even that to be incorrect.)

One of these was related to the first Langley medal awarded to the Wrights, which was presented publicly in February 1910. In discussing that presentation, the Annual Report for 1910 (page 23), by the Secretary of the Institution, quoted Wilbur Wright as making a statement he had not made at that event, but had used in a different context at another time. The incorrect use of that quote contributed to a false impression worldwide that the Wrights had acknowledged their debt to Langley’s scientific work. The reality was that Wilbur Wright had mentioned in a private letter being indebted to Langley, not for scientific data, but because it was encouraging to know that the leader of a scientific institution believed human flight was possible. (Langley’s published work in aerodynamics focused only on measuring air pressures on flat surfaces—and later experiments proved even that to be incorrect.)

The Smithsonian has more than once mentioned the award of the Langley medal to the Wrights as a proof of the Institution’s disposition to honor them. But the truth is that the Langley medal was established to honor Langley, not the Wrights. Neither in the award nor in the presentation of the medal to the Wright Brothers was there any suggestion that the Wrights were the first to fly.

The Smithsonian has mentioned several times the award of the Langley medal to the Wrights as evidence of the Institution’s intention to honor them. But the reality is that the Langley medal was created to recognize Langley, not the Wrights. In neither the award nor the presentation of the medal to the Wright Brothers was there any implication that the Wrights were the first to fly.

In 1910, Dr. Walcott made it evident that the Institution actually did not want the original Wright plane of 1903 as an exhibit. This could be seen in letters he sent to Wilbur Wright in the spring of 1910. The first of these, dated March 7, said:16

In 1910, Dr. Walcott clearly indicated that the Institution did not want the original Wright airplane from 1903 as an exhibit. This was evident in letters he sent to Wilbur Wright in the spring of 1910. The first of these, dated March 7, said:16

The National Museum is endeavoring to enlarge its collections illustrating the progress of aviation and, in this connection, it has been suggested that you might be willing to deposit one of your machines, or a model thereof, for exhibition purposes.

The National Museum is working to expand its collections showcasing the advancement of aviation, and in this regard, it has been suggested that you might consider donating one of your machines, or a model of it, for display purposes.

The great public interest manifested in this science and the numerous inquiries from visitors for the Wright machine make it manifest that if one were placed on exhibition here it would form one of the most interesting specimens in the national collections. It is sincerely hoped that you may find it possible to accede to this request.

The strong public interest shown in this technology and the many questions from visitors about the Wright machine clearly suggest that if one were displayed here, it would be one of the most interesting pieces in the national collections. We genuinely hope that you can accommodate this request.

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Wilbur Wright replied as follows:

Wilbur Wright responded as follows:

My Dear Dr. Walcott: ... If you will inform us just what your preference would be in the matter of a flier for the National Museum we will see what would be possible in the way of meeting your wishes. At present nothing is in condition for such use. But there are three possibilities. We might construct a small model showing the general construction of the aeroplane, but with a dummy power plant. Or we can reconstruct the 1903 machine with which the first flights were made at Kitty Hawk. Most of the parts are still in existence. This machine would occupy a space 40 feet by 20 feet by 8 feet. Or a model showing the general design of the latter machine could be constructed.

My Dear Dr. Walcott: ... If you could let us know what you’d prefer for a flyer for the National Museum, we will do our best to accommodate your wishes. Right now, nothing is ready for that purpose. However, we have three options. We could create a small model that demonstrates the overall construction of the airplane, but with a mock power plant. Alternatively, we could recreate the 1903 machine that made the first flights at Kitty Hawk. Most of the parts still exist. This machine would need a space of 40 feet by 20 feet by 8 feet. Or we could build a model showing the general design of the latter machine.

The peculiar attitude of the Smithsonian then began to appear. In his next letter to Wilbur Wright, dated April 11, 1910, Dr. Walcott wrote:

The unusual stance of the Smithsonian started to become clear. In his next letter to Wilbur Wright, dated April 11, 1910, Dr. Walcott wrote:

... The matter of the representation of the Wright airplane has been very carefully considered by Mr. George C. Maynard, who has charge of the Division of Technology in the National Museum. I told him to indicate what he would like for the exhibit, in order that the matter might be placed clearly before you and your brother. In his report he says:

... Mr. George C. Maynard, who oversees the Division of Technology at the National Museum, has put a lot of thought into how the Wright airplane should be represented. I asked him to outline what he would like for the exhibit so that you and your brother could clearly understand the details. In his report, he states:

“The following objects illustrating the Wright inventions would make a very valuable addition to the aeronautical exhibits in the Museum:

“The following items showcasing the Wright inventions would be a great addition to the aeronautical exhibits in the Museum:

“1. A quarter-size model of the aeroplane used by Orville Wright at Fort Myer, Virginia, in September, 1908. Such a model equipped with a dummy power plant, as suggested by the Wrights, would be quite suitable.

“1. A quarter-size model of the airplane used by Orville Wright at Fort Myer, Virginia, in September 1908. A model like that, equipped with a dummy power plant as suggested by the Wrights, would work well.”

“2. If there are any radical differences between the machine referred to and the one used at Kitty Hawk, a second model of the latter machine would be very appropriate.

“2. If there are any major differences between the machine mentioned and the one used at Kitty Hawk, having a second model of the latter machine would make a lot of sense.”

“3. A full-sized Wright aeroplane. Inasmuch as the machine305 used at Fort Myer17 has attracted such world-wide interest, that machine, if it can be repaired or reconstructed, would seem most suitable. If, however, the Wright brothers think the Kitty Hawk machine would answer the purpose better, their judgment might decide the question.

“3. A full-sized Wright airplane. Since the machine305 used at Fort Myer17 has gained so much worldwide interest, that machine, if it can be fixed or rebuilt, seems the most suitable option. If, however, the Wright brothers believe the Kitty Hawk machine would serve the purpose better, their judgment might determine the choice.

“4 If the Wright brothers have an engine of an early type used by them which could be placed in a floor case for close inspection that will be desirable.”

“4 If the Wright brothers have an early engine they used that can be put in a display case for a close look, that would be great.”

The engine of the Langley Aerodrome is now on exhibition in a glass case and the original full-size machine is soon to be hung in one of the large halls. The three Langley quarter-size models are on exhibition. The natural plan would be to install the different Wright machines along with the Langley machines, making the exhibit illustrate two very important steps in the history of the aeronautical art.

The Langley Aerodrome engine is now displayed in a glass case, and the original full-size machine will soon be hung in one of the large halls. The three quarter-size models of Langley are also on display. The idea is to set up the various Wright machines alongside the Langley machines, creating an exhibit that highlights two significant milestones in the history of aviation.

The request of Mr. Maynard is rather a large one, but we will have to leave it to your discretion as to what you think it is practicable for you to do.

The request from Mr. Maynard is quite substantial, but we'll have to rely on your judgment about what you think is feasible for you to do.

Sincerely yours,
Charles D. Walcott,
Secretary.

Best regards, Charles D. Walcott, Secretary.

If Dr. Walcott’s suggestions, that the Wrights provide a reproduction in model size of their 1908 plane and the 1908 plane itself, had been accepted, then the proposed exhibits in the National Museum of models and full-size machines by Langley and the Wrights could easily have been of a nature to give a wrong impression. Surely a good many uninformed visitors to the museum would hardly have known, or stopped to306 think, that it is one thing to build and fly a small model plane, but an altogether different problem to build and fly a plane, of the same design, large enough to carry a man. Small models of flying-machines were flown by the Frenchman, Pénaud, as early as 1871. But a larger machine of the same design could not be flown—as the Wrights themselves in early boyhood had found out. Likewise, the fact that Langley flew a steam-driven model in 1896, and a gas-driven model in 1903, would not indicate to anyone who understands such matters that a full-size machine of the same design as either of the models could support itself in the air. Langley’s own experiments had proved how great is the gap between success with a model and with a larger machine. His full-size machine of 1903, of the same design as the model flown earlier that year, collapsed the moment it was launched. But suppose an uninformed visitor noticed, side by side, a Langley model plane of 1903, and a reproduction in model size of the Wright machine flown with a pilot in 1908. If he hadn’t read the labels carefully, or if the labels didn’t go into enough detail to make the facts clear, couldn’t he easily have received the false impression that Langley had been at least five years ahead of the Wrights? And if the visitor didn’t know that the Langley full-size machine of 1903 never flew, wouldn’t the sight of it, alongside the Wright machine flown in 1908, have seemed to confirm the wrong impression? Perhaps, however, that was the impression Dr. Walcott wanted museum visitors to receive!

If Dr. Walcott’s suggestions, that the Wrights create a model-size replica of their 1908 plane and showcase the actual 1908 plane, had been accepted, then the proposed exhibits in the National Museum featuring models and full-size machines by Langley and the Wrights could easily mislead visitors. Many uninformed guests at the museum might not have realized, or taken a moment to think about, the difference between building and flying a small model plane and the much more complex challenge of building and flying a full-sized plane that could carry a person. Small flying machine models were flown by the Frenchman, Pénaud, as early as 1871. But a larger version of the same design couldn’t be successfully flown, as the Wrights discovered in their early childhood. Additionally, the fact that Langley flew a steam-driven model in 1896 and a gas-driven model in 1903 wouldn’t indicate to anyone with some knowledge that a full-size machine of the same design as either of those models could actually stay in the air. Langley’s own experiments showed just how significant the leap is from a model to a larger machine. His full-size machine from 1903, which was designed like the model flown earlier that year, collapsed the instant it was launched. However, imagine that an uninformed visitor saw, side by side, a Langley model plane from 1903 and a model-size replica of the Wright machine flown with a pilot in 1908. If that visitor hadn’t read the labels carefully, or if the labels didn’t provide enough detail, they could easily walk away with the mistaken belief that Langley was at least five years ahead of the Wrights. And if the visitor didn’t know that Langley’s full-size machine from 1903 never flew, wouldn’t seeing it next to the Wright machine flown in 1908 seem to confirm that false impression? Perhaps that was exactly the impression Dr. Walcott wanted museum visitors to have!

The Walcott letter said, it may be noted, that if there were “any radical differences” between the first Wright307 machine and the one flown in 1908, then a “model” of the first machine might be appropriate. But since there were no radical differences between the 1903 and 1908 machines, not even a small-sized model of the first machine ever to be flown was being asked for. The Wrights took the letter to mean that the Smithsonian did not want an exhibit that would emphasize the fact of their having flown a successful, man-carrying machine as early as 1903. They thought it was significant that the letter did not say that the Wrights’ own opinion would decide which machine was more suitable, but only that their judgment “might” decide the question. Because of their strong belief that the Smithsonian was showing a prejudiced attitude, they made no reply to the Walcott letter.

The Walcott letter noted that if there were “any radical differences” between the first Wright307 machine and the one flown in 1908, then a “model” of the first machine might be appropriate. However, since there were no significant differences between the 1903 and 1908 machines, not even a small model of the first machine that was ever flown was being requested. The Wrights interpreted the letter to mean that the Smithsonian did not want an exhibit that would highlight their achievement of flying a successful, man-carrying machine as early as 1903. They found it noteworthy that the letter did not state that the Wrights’ own opinion would determine which machine was more appropriate, but instead that their judgment “might” influence the decision. Because they strongly believed the Smithsonian was showing bias, they chose not to respond to the Walcott letter.

There was no further correspondence on this subject between the Smithsonian and the Wrights until six years later. In 1916, the original Wright plane was exhibited at the dedication of the new buildings of the Massachusetts Institute of Technology. Dr. Alexander Graham Bell, a Regent of the Smithsonian Institution, saw the plane and expressed astonishment. It was the first he knew that it was still in existence. Shortly afterward, in a conversation with Orville Wright, he asked why the plane was not being exhibited by the Smithsonian.

There was no further communication on this topic between the Smithsonian and the Wrights until six years later. In 1916, the original Wright plane was showcased at the opening of the new buildings at the Massachusetts Institute of Technology. Dr. Alexander Graham Bell, a Regent of the Smithsonian Institution, saw the plane and was amazed. It was the first time he realized it was still around. Soon after, in a conversation with Orville Wright, he asked why the plane wasn’t being displayed by the Smithsonian.

“Because,” replied Orville, “the Smithsonian does not want it.”

“Because,” Orville replied, “the Smithsonian isn’t interested in it.”

“Indeed the Smithsonian does want it!” exclaimed Dr. Bell. He was sincere in thinking so and requested Dr. Walcott to get in touch with Orville Wright.

“Absolutely, the Smithsonian wants it!” Dr. Bell exclaimed. He genuinely believed this and asked Dr. Walcott to reach out to Orville Wright.

Walcott on December 23, 1916, wrote what Orville308 considered a perfunctory letter saying: “... the importance of securing for the National Museum the Wright aeroplane which was exhibited at the opening of the new buildings of the Massachusetts Institute of Technology has been suggested to me.”

Walcott wrote on December 23, 1916, what Orville308 saw as a routine letter saying: “... the importance of securing the Wright aeroplane for the National Museum, which was shown at the opening of the new buildings of the Massachusetts Institute of Technology has been brought to my attention.”

Orville Wright replied that he would be glad to take up the question with Dr. Walcott in a personal interview. A few days later the two met in Washington, but it was soon evident to Orville that Dr. Walcott’s attitude had not changed; that he did not want that original Wright machine which had flown exhibited beside the Langley machine which had failed to fly.

Orville Wright said he would be happy to discuss the issue with Dr. Walcott in a one-on-one meeting. A few days later, they met in Washington, but it quickly became clear to Orville that Dr. Walcott's stance hadn’t changed; he did not want the original Wright machine that had flown to be displayed next to the Langley machine that had not flown.

When Orville found that Walcott’s attitude had not changed in the six years since the former correspondence, he gave the question no further consideration.

When Orville realized that Walcott’s attitude hadn’t changed in the six years since their last correspondence, he didn’t think about it anymore.

Meanwhile, in 1914, after the Federal courts had upheld the Wright patents in the suits against Glenn H. Curtiss and others, and recognized the Wrights as “pioneers” in the practical art of flying with heavier-than-air machines, an astounding thing happened.

Meanwhile, in 1914, after the Federal courts had upheld the Wright patents in the lawsuits against Glenn H. Curtiss and others, and acknowledged the Wrights as “pioneers” in the practical field of flying with heavier-than-air machines, something extraordinary occurred.

A few days after the final court decision had been delivered, Lincoln Beachey, a Curtiss stockholder, telegraphed to Secretary Walcott, of the Smithsonian, asking permission to attempt a flight with the original Langley machine. That proposal was not accepted; but two months later, when Glenn H. Curtiss himself said he would like to test the Langley machine, his request was granted. The Smithsonian entered into a deal with Curtiss in which he was to receive a payment of $2,000, and was permitted to take the original Langley plane from the Smithsonian to his shop at Hammondsport, New309 York. There he made numerous vital changes in the machine, using knowledge of aerodynamics discovered by the Wrights but never possessed by Langley. No information is available to indicate that the Smithsonian offered any objection to these alterations being made. The Smithsonian’s official observer, in connection with the tests of the machine, was Dr. A. F. Zahm, who had been technical expert for Curtiss in the recent lawsuits and was to serve again in that capacity in another suit soon to follow. No one officially representing any disinterested scientific body was present during the time the changes in the machine were made nor during the time it was tested.

A few days after the final court decision was announced, Lincoln Beachey, a Curtiss stockholder, sent a telegram to Secretary Walcott of the Smithsonian, asking for permission to try flying the original Langley machine. That request was denied; however, two months later, when Glenn H. Curtiss himself expressed interest in testing the Langley machine, his request was approved. The Smithsonian made a deal with Curtiss, where he would receive $2,000 and be allowed to take the original Langley plane from the Smithsonian to his workshop in Hammondsport, New York. There, he made several important modifications to the machine, applying knowledge of aerodynamics developed by the Wright brothers but that Langley never knew. There is no information suggesting that the Smithsonian objected to these changes. The Smithsonian’s official observer for the machine tests was Dr. A. F. Zahm, who had been a technical expert for Curtiss in the recent lawsuits and would serve in that role again in a forthcoming case. No one officially representing any unbiased scientific organization was present when the machine was altered or tested.

It seems highly improbable that Dr. Walcott could have been so unintelligent or so uninformed as not to know about the recent decision of the U. S. Court of Appeals against Curtiss; and equally improbable that he could have been unaware of Zahm’s relations with Curtiss as expert witness and adviser. One may well wonder, too, if Dr. Walcott could have failed to understand why Curtiss had recently become interested in testing the Langley plane. In hundreds of pages of direct testimony in the lawsuits, neither Curtiss nor Zahm had mentioned Langley’s name, though they had more than once referred to Chanute, Maxim, Henson, Marriott, Boulton, Pilcher, Harte, and other pioneers. One may further wonder if Walcott could have been unaware when, in 1913, the Smithsonian awarded the Langley medal to Curtiss, that he had already been pronounced an infringer of the Wright patents by a Federal court, and that another decision in a higher court was pending. It310 almost looked as if there might have been an intent to try to influence that decision.

It seems very unlikely that Dr. Walcott could have been so oblivious or uninformed as to not know about the recent decision by the U.S. Court of Appeals against Curtiss; and it's also hard to believe that he could have been unaware of Zahm’s connections with Curtiss as an expert witness and advisor. One might also question whether Dr. Walcott truly failed to understand why Curtiss had recently become interested in testing the Langley plane. In hundreds of pages of direct testimony in the lawsuits, neither Curtiss nor Zahm mentioned Langley’s name, even though they referenced Chanute, Maxim, Henson, Marriott, Boulton, Pilcher, Harte, and other pioneers multiple times. It’s worth wondering if Walcott could have missed the fact that in 1913, when the Smithsonian awarded the Langley medal to Curtiss, he had already been declared an infringer of the Wright patents by a Federal court, and that another ruling in a higher court was pending. It310 almost appears that there was an intention to influence that ruling.

Curtiss had a strong motive for wanting to make it appear that the Langley plane could have flown. The United States Court of Appeals had held that the Wrights were pioneers in the field of heavier-than-air flying-machines, and that therefore their patent claims were entitled to a “liberal interpretation.” If Curtiss could demonstrate, or seem to demonstrate, that a machine capable of flight had been built before the Wright machine, then he could weaken their claims, to his financial advantage, in a patent suit he expected to have to defend. In consequence of the important changes that were made, Curtiss finally was able to make several short hops, of less than five seconds, with the reconstructed machine, in May and June, 1914, over Lake Keuka, at Hammondsport, N. Y. Then the Smithsonian, in its annual report of the U. S. National Museum for that year, falsely stated that the original Langley plane had been flown “without modification”! And the annual report of the Smithsonian Institution for 1914, with equally glaring falsity, said: “It [the Langley machine] has demonstrated that with its original structure and power, it is capable of flying with a pilot and several hundred pounds of useful load. It is the first aeroplane in the history of the world of which this can truthfully be said”! (Italics supplied.)

Curtiss had a strong reason for wanting to make it seem like the Langley plane could have flown. The United States Court of Appeals had determined that the Wright brothers were pioneers in the field of heavier-than-air flying machines, meaning their patent claims deserved a “liberal interpretation.” If Curtiss could show, or give the impression that, a machine capable of flight was built before the Wright machine, he could undermine their claims, benefiting him financially in a patent lawsuit he anticipated having to defend. As a result of the significant changes that were made, Curtiss was finally able to make several short flights, each lasting less than five seconds, with the reconstructed machine in May and June of 1914 over Lake Keuka, at Hammondsport, N.Y. Then the Smithsonian, in its annual report of the U.S. National Museum for that year, inaccurately claimed that the original Langley plane had been flown “without modification”! And the annual report of the Smithsonian Institution for 1914 falsely stated: “It [the Langley machine] has demonstrated that with its original structure and power, it is capable of flying with a pilot and several hundred pounds of useful load. It is the first aeroplane in the history of the world of which this can truthfully be said”! (Italics supplied.)

The Institution’s annual report for 1915 continued to repeat such untruths. “The tests thus far made have shown that former Secretary Langley had succeeded in311 building the first aeroplane capable of sustained free flight with a man.”

The Institution’s annual report for 1915 kept repeating such falsehoods. “The tests conducted so far have shown that former Secretary Langley successfully built the first airplane capable of sustained free flight with a person.”

Similar misstatements were made in the Institution’s reports for 1916, 1917, 1918, and afterward.

Similar inaccuracies were found in the Institution’s reports for 1916, 1917, 1918, and beyond.

Altogether here had been something probably unique in scientific procedure. A test was made purporting to determine if the original Langley plane was capable of flight; but the test was not made with the machine as designed and built by Langley, nor with an exact copy of it. No disinterested official observer was present. Misstatements were published about the results, and no information was furnished, regarding the changes made, to enable anyone to learn the truth. To have made one more honest test of the Langley plane that had immediately crashed each time it was launched over the Potomac would have been permissible. But for a scientific institution officially to distort scientific facts, and in collaboration with a man who stood to gain financially by what he was doing, has been called worse than scandalous.

Overall, there was probably something unique in the scientific process here. A test was conducted to see if the original Langley plane could fly; however, the test was not performed with the machine as designed and built by Langley, nor with an exact replica. No unbiased official observer was present. Incorrect statements were published about the results, and no information was provided about the changes made, preventing anyone from discovering the truth. Conducting one more honest test of the Langley plane, which had crashed each time it was launched over the Potomac, would have been acceptable. But for a scientific institution to officially misrepresent scientific facts, in collaboration with someone who stood to gain financially from it, has been deemed more than scandalous.

After the Langley machine had been restored as nearly as possible to its original state, it was placed on exhibition by the Smithsonian. Soon afterward it bore a label that falsely proclaimed it to be “the first man-carrying aeroplane in the history of the world capable of sustained free flight.”

After the Langley machine was restored as closely as possible to its original condition, it was put on display by the Smithsonian. Shortly after, it had a label that inaccurately stated it was “the first man-carrying airplane in the history of the world capable of sustained free flight.”

But neither in connection with the exhibit of the Langley plane nor in any report of the Smithsonian Institution was there any hint of the fundamental changes made at Hammondsport, without which the plane could not possibly have carried its weight. One of these changes had to do with the supporting posts on the312 wings. Professor Langley had not known—indeed, no one knew until the Wrights’ wind-tunnel experiments established the facts—where the center of the air pressure would be on a curved surface, and consequently he had failed to place his wing-trussing posts where they were most needed. In the attempts to fly the machine over the Potomac, in 1903, the wing that bore the greater part of the weight had each time collapsed at the moment the apparatus left the starting platform. (Lacking the knowledge about curved surfaces that later was available, those in charge of the 1903 trials had blamed the trouble on the launching apparatus.) At the Hammondsport tests, the trussing posts were moved thirty inches rearward. This brought the guy posts almost exactly in the same plane with the center of pressure on the wings and thus eliminated the backward pull that had wrecked the machine in the 1903 tests.

But neither in connection with the display of the Langley plane nor in any report from the Smithsonian Institution was there any indication of the crucial changes made at Hammondsport, without which the plane couldn't have carried its weight. One of these changes involved the supporting posts on the312 wings. Professor Langley didn't know—actually, no one knew until the Wrights’ wind-tunnel experiments proved it—where the center of air pressure would be on a curved surface, so he failed to put his wing-support posts in the most necessary locations. In the attempts to fly the machine over the Potomac in 1903, the wing that carried the majority of the weight collapsed each time just as the apparatus left the starting platform. (Without the understanding of curved surfaces that would come later, those in charge of the 1903 trials blamed the problem on the launching equipment.) During the Hammondsport tests, the supporting posts were moved thirty inches back. This alignment brought the support posts almost directly in line with the center of pressure on the wings, eliminating the backward pull that had caused the machine to fail during the 1903 tests.

Three fundamental changes were made in the design of the wings themselves: (1) The camber was greatly changed; (2) the shape of the leading edge was entirely different; (3) the aspect ratio—the ratio of span to chord—was increased. These three features are the most important characteristics in determining the efficiency of a wing. The change of the camber of itself may increase the efficiency of a wing by thirty per cent. And not only were the wings changed as to design, but they were strengthened by various means of reinforcing and trussing not used by Langley. Even the cloth on the wings was improved by varnishing, to make the wings more efficient. Langley had not used varnish on the cloth.

Three key changes were made in the design of the wings themselves: (1) The camber was significantly altered; (2) the shape of the leading edge was completely different; (3) the aspect ratio—the ratio of span to chord—was increased. These three features are the most important factors in determining a wing's efficiency. Changing the camber alone can boost a wing's efficiency by thirty percent. Not only were the wings redesigned, but they were also reinforced with various methods of bracing that Langley did not use. Even the fabric on the wings was improved by varnishing to enhance their efficiency. Langley hadn't applied varnish to the fabric.

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Numerous changes were made in other parts of the machine. The large fixed vertical keel surface, situated below the main frame in 1903, was entirely omitted in 1914. This omission improved the machine’s stability. A different kind of rudder was used. The position of the “Pénaud tail” used by Langley was raised about ten inches to increase the stability of the machine, and was connected to a modern steering post, to give better control. The forward corners of the original Langley propellers were cut off in the manner of the early Wright propellers to increase their efficiency. As the system of control Langley had used was not adequate, the aileron system, covered by Wright patents, a system unknown to Langley, was added.

Numerous changes were made in other parts of the machine. The large fixed vertical keel, located below the main frame in 1903, was completely removed in 1914. This removal improved the machine's stability. A different kind of rudder was utilized. The position of the “Pénaud tail” used by Langley was raised by about ten inches to enhance the machine's stability and was linked to a modern steering post for better control. The forward corners of the original Langley propellers were trimmed off like the early Wright propellers to boost their efficiency. Since the control system Langley used was inadequate, the aileron system, which was covered by Wright patents and unknown to Langley, was added.

How did all these changes become known? Orville Wright called attention to them in an affidavit in 1915 in the Wright-Curtiss lawsuit. One way to learn most of the facts is astonishingly simple. All that is necessary to any observer who knows what to look for is to make careful comparisons of the Smithsonian photographs of the original Langley machine with Smithsonian photographs of the machine tested at Hammondsport.

How did all these changes come to light? Orville Wright highlighted them in a statement in 1915 during the Wright-Curtiss lawsuit. One way to uncover most of the facts is surprisingly straightforward. Anyone who knows what to look for just needs to closely compare the Smithsonian photos of the original Langley machine with the Smithsonian photos of the machine tested at Hammondsport.

It was learned, too, that even the engine used by Langley was changed in several respects. A modern type carburetor, a new intake manifold, a magneto ignition, and a modern radiator were installed.

It was found out that even the engine used by Langley was modified in several ways. A contemporary carburetor, a new intake manifold, magneto ignition, and a modern radiator were added.

Though all these changes and many others were made in the machine at Hammondsport, the Smithsonian published only a few of them—the less important. It did not tell of the fundamental changes. And the Institution made statements that, by implication, practically314 amounted to a denial that any changes of importance had been made.

Though all these changes and many others were made in the machine at Hammondsport, the Smithsonian only published a few of them—the less significant ones. It didn’t mention the major changes. Furthermore, the Institution made statements that, by implication, basically denied that any important changes had been made.

By omitting from its published reports at the time and for many years afterward, the facts about the changes in the Langley machine, the Smithsonian Institution succeeded in deluding the public. If the stories about these fake tests had been issued by Curtiss, who conducted them, or by an organization less well known than the Smithsonian, they might not have been taken seriously. But when false and misleading announcements were backed by the prestige of a famous scientific institution, it was possible to have the fraudulent character of the experiments pass generally unsuspected. When the reports of Secretary Walcott of the Smithsonian Institution said the “original” Langley machine had made “flights,” and when the report of the National Museum said the Langley machine had been flown “without modification,” such statements, untrue though they were, naturally carried weight. Indeed, the misstatements were so widely accepted as fact that they began to find their way into school text-books and into encyclopedias.

By leaving out the details about the changes to the Langley machine in its reports at the time and for many years afterward, the Smithsonian Institution managed to mislead the public. If the stories about these fake tests had come from Curtiss, who ran them, or from a less reputable organization than the Smithsonian, they might not have been taken seriously. But with misleading announcements supported by the reputation of a well-known scientific institution, the fraudulent nature of the experiments managed to go largely unnoticed. When Secretary Walcott of the Smithsonian Institution reported that the "original" Langley machine had made "flights," and when the National Museum's report claimed the Langley machine was flown "without modification," these false statements, despite being untrue, carried significant weight. In fact, the inaccuracies were so widely accepted as truth that they began to appear in school textbooks and encyclopedias.

Griffith Brewer, the English aeronaut, delivered a lecture before the Royal Aeronautical Society in London, in October, 1921, and exposed the fraudulent nature of the Hammondsport tests. In this lecture he mentioned many of the vital changes made in the Langley plane before any attempt was made to fly it. Dr. Walcott made a statement in reply to Brewer. Up to this time Orville Wright had thought that Walcott could have been ignorant of those changes; but after315 reading the Walcott statement he was convinced that there was nothing accidental or unintentional about the misstatements published by the Smithsonian regarding the tests at Hammondsport.

Griffith Brewer, the English aeronaut, gave a lecture to the Royal Aeronautical Society in London in October 1921, where he revealed the deceptive nature of the Hammondsport tests. In this lecture, he pointed out several crucial changes made to the Langley plane before it was ever flown. Dr. Walcott responded to Brewer's claims. Until that point, Orville Wright had assumed that Walcott might not have been aware of those changes, but after reading Walcott's statement, he became convinced that the inaccuracies published by the Smithsonian regarding the Hammondsport tests were neither accidental nor unintentional.315

While the Kitty Hawk plane rested in its storage place, subject to possible fire hazards, officials of the Science Museum at South Kensington, London, England, had made requests to have the machine for exhibition there. After Orville Wright became convinced that none of the Members or Regents of the Smithsonian Institution or any other influential persons were enough interested in establishing the facts in controversy to go to the trouble of making an investigation, he reluctantly decided, in 1923, to accede to the requests from London. In reply to letters deploring this decision, he has expressed his reasons as follows:

While the Kitty Hawk plane sat in storage, vulnerable to potential fire hazards, officials from the Science Museum in South Kensington, London, had requested to display the aircraft. After Orville Wright realized that none of the Members or Regents of the Smithsonian Institution, or any other influential figures, were sufficiently interested in clearing up the controversy to investigate, he reluctantly agreed, in 1923, to the requests from London. In response to letters expressing disappointment over this decision, he shared his reasons as follows:

I believe my course in sending our Kitty Hawk machine to a foreign museum is the only way of correcting the history of the flying-machine, which by false and misleading statements has been perverted by the Smithsonian Institution.

I believe sending our Kitty Hawk machine to a foreign museum is the only way to correct the history of the flying machine, which has been distorted by the Smithsonian Institution through false and misleading statements.

In its campaign to discredit others in the flying art, the Smithsonian has issued scores of these false and misleading statements. They can be proved to be false and misleading from documents. But the people of today do not take the trouble to examine this evidence.

In its effort to undermine others in aviation, the Smithsonian has released many of these false and misleading statements. These can be proven false and misleading with documents. However, people today don't bother to look at this evidence.

With this machine in any American museum the national pride would be satisfied; nothing further would be done and the Smithsonian would continue its propaganda. In a foreign museum this machine will be a constant reminder of the reason of its being there, and after the people and petty jealousies of this day are gone, the historians of316 the future may examine impartially the evidence and make history accord with it.

With this machine in any American museum, national pride would be fulfilled; nothing more would be done, and the Smithsonian would keep promoting its narrative. In a foreign museum, this machine will serve as a constant reminder of why it's there, and after the people and petty rivalries of today have faded, historians of the future may look at the evidence without bias and write history to reflect it.

Your regret that this old machine must leave our country can hardly be so great as my own.

Your regret that this old machine has to leave our country can't possibly be as deep as mine.

Reluctant to carry out his intention to send the Kitty Hawk plane out of the country, Orville Wright in 1925 proposed that the controversy be settled through the investigations of an impartial committee. But the suggestion got no response. He wrote a letter, on May 14, 1925, to Chief Justice William Howard Taft, as Chancellor of the Smithsonian Institution, in the hope that it might yet be possible to have an impartial hearing. In this letter, after reviewing the relations of the Wrights and the Smithsonian, he said:

Reluctant to go through with his plan to send the Kitty Hawk plane out of the country, Orville Wright proposed in 1925 that the dispute be resolved by an unbiased committee. However, there was no response to his suggestion. On May 14, 1925, he wrote a letter to Chief Justice William Howard Taft, who was the Chancellor of the Smithsonian Institution, hoping it might still be possible to have a fair hearing. In this letter, after discussing the relationship between the Wrights and the Smithsonian, he stated:

It was not until 1921 that I became convinced that the officials of the Smithsonian, at least Dr. Walcott, were fully acquainted with the character of the tests at Hammondsport. I had thought up to that time that they might have been ignorant of the fundamental changes which had been incorporated in the machine before these tests were made, and that when these changes were pointed out to them they would hasten to correct their erroneous reports. They did not do this, but have continued to repeat their early statements. By these the public has been led to think that flights were made in 1914 with the original Langley machine, with no changes, excepting such as were necessary to attach floats for the new system of launching.

It wasn’t until 1921 that I became convinced that the Smithsonian officials, particularly Dr. Walcott, were fully aware of the nature of the tests conducted in Hammondsport. Until that point, I believed they might not have known about the significant changes made to the machine before these tests occurred, and that once these changes were brought to their attention, they would quickly correct their misleading reports. They did not do this, however, and have continued to repeat their original claims. As a result, the public has been led to believe that flights took place in 1914 with the original Langley machine, with no alterations except those needed to attach floats for the new launch system.

When the proofs on both sides concerning these changes are shown, I do not think it will take you five minutes to make up your mind whether the changes were made and whether they were of importance.

When the evidence from both sides regarding these changes is presented, I don't think it will take you more than five minutes to decide if the changes were made and if they were significant.

It seems to me possible that you as Chancellor of the317 Smithsonian Institution may wish me to present personally to you my evidence on these points and to have Dr. Walcott present at the same time to give his proofs to the contrary. It may be a way of cutting short a long and bitter controversy.

It seems possible to me that you, as Chancellor of the317 Smithsonian Institution, might want me to share my evidence with you directly and have Dr. Walcott there at the same time to provide his counterarguments. This could be a way to quickly resolve a lengthy and heated debate.

Chief Justice Taft replied that his position as Chancellor and head of the Smithsonian was purely nominal; that his other duties were such that he did not have the time to give any real attention to questions that have to be settled by the Institution’s Secretary.

Chief Justice Taft responded that his role as Chancellor and head of the Smithsonian was mainly symbolic; that his other responsibilities were such that he didn’t have the time to give any real focus to issues that needed to be addressed by the Institution’s Secretary.

A similar preference to stand aside was shown by others nominally in a position to exercise authority over the acts of the Smithsonian. That Institution has as its members the President of the United States, the Vice President, the Chief Justice of the Supreme Court, and members of the President’s cabinet. Its Board of Regents is made up of the Chief Justice, the Vice President, three members of the Senate, three members of the House of Representatives, and six citizens appointed by joint resolution of Congress. Any one of these members of the Board of Regents could doubtless have forced an investigation of any reported injustice committed by the Smithsonian. But all had other duties to occupy their time and, like Chief Justice Taft, they were willing to let the Secretary of the Smithsonian act as he saw fit. Thus the Secretary of the Smithsonian, which administers several important government bureaus besides the National Museum, could exercise great influence. That is how it came about that the attempt to mislead the public regarding the epochal achievements of the Wrights went so long unchecked by official action. And as318 Orville Wright once said he had discovered, “Silent truth cannot withstand error aided by continued propaganda.”

A similar choice to step back was made by others who were supposedly in a position to oversee the actions of the Smithsonian. The Institution includes as its members the President of the United States, the Vice President, the Chief Justice of the Supreme Court, and members of the President’s cabinet. Its Board of Regents consists of the Chief Justice, the Vice President, three Senators, three Representatives, and six citizens appointed by a joint resolution of Congress. Any of these Board members could have initiated an investigation into any reported wrongdoing by the Smithsonian. However, they all had other responsibilities to focus on, and like Chief Justice Taft, they were willing to let the Secretary of the Smithsonian act as he deemed appropriate. As a result, the Secretary of the Smithsonian, which oversees several significant government bureaus in addition to the National Museum, could wield considerable influence. This is how the attempt to mislead the public about the groundbreaking achievements of the Wrights went for so long without official intervention. As Orville Wright once pointed out, “Silent truth cannot withstand error assisted by relentless propaganda.” And as318

After the exchange of letters with Chief Justice Taft, Orville Wright still delayed sending the Kitty Hawk plane to England. There was nothing impetuous about what he did. Not until early in 1928, or fourteen years after the fraudulent tests at Hammondsport, with the Smithsonian still showing no intention to correct its false record of those flights, did he send the machine to the Science Museum at South Kensington. The arrangement he made with the Science Museum was that the plane should stay there for not less than five years, and permanently unless brought back to the United States within his lifetime.

After exchanging letters with Chief Justice Taft, Orville Wright still postponed sending the Kitty Hawk plane to England. He wasn't rushing into things. It wasn't until early 1928, fourteen years after the misleading tests at Hammondsport, with the Smithsonian showing no sign of correcting its inaccurate record of those flights, that he sent the plane to the Science Museum at South Kensington. The deal he made with the Science Museum was that the plane would remain there for at least five years, and permanently unless it was returned to the United States during his lifetime.

Early in 1928, a bill was introduced in Congress to ascertain which was the first heavier-than-air flying-machine. Shortly afterward the Smithsonian adopted a resolution declaring that “to the Wrights belongs the credit of making the first successful flight with a power-propelled heavier-than-air machine carrying a man.”

Early in 1928, a bill was introduced in Congress to determine which was the first heavier-than-air flying machine. Shortly after that, the Smithsonian passed a resolution stating that "the Wright brothers deserve the recognition for making the first successful flight with a powered heavier-than-air machine carrying a person."

That resolution was, of course, superfluous, for there had never been any question, even by the Smithsonian, as to the first machine to make a sustained flight. But the Smithsonian continued to claim for Professor Langley credit for the invention of the first machine capable of flight.

That resolution was obviously unnecessary, since there was never any doubt, even from the Smithsonian, about which machine made the first sustained flight. However, the Smithsonian still credited Professor Langley with the invention of the first machine capable of flight.

Dr. Charles G. Abbot became the Secretary and Director of the Smithsonian Institution in 1928, succeeding Dr. Walcott, who had died in 1927. Soon after he became the head of the Institution, Dr. Abbot319 invited Orville Wright to go to lunch with him at the Carlton Hotel in Washington. In the course of their talk Dr. Abbot expressed the wish that they might come to an agreement by which the Kitty Hawk plane could be returned to America and placed under the care of the Smithsonian in the National Museum. Orville Wright said that this could easily be done. All that he asked for, he said, was a correction in the Smithsonian publications of the false and misleading statements previously made in those publications. Dr. Abbot expressed a willingness to do so, provided this could be accomplished without injuring the reputation of his predecessor or the prestige of the Institution.

Dr. Charles G. Abbot became the Secretary and Director of the Smithsonian Institution in 1928, taking over from Dr. Walcott, who had passed away in 1927. Shortly after becoming the head of the Institution, Dr. Abbot invited Orville Wright to lunch at the Carlton Hotel in Washington. During their conversation, Dr. Abbot expressed his hope that they could come to an agreement to have the Kitty Hawk plane returned to America and placed under the care of the Smithsonian in the National Museum. Orville Wright said this could easily be arranged. All he requested was a correction in the Smithsonian publications regarding the false and misleading statements that had been made before. Dr. Abbot agreed to do this, as long as it could be done without harming the reputation of his predecessor or the prestige of the Institution.

But the painful fact was that the Smithsonian, however spotless its previous reputation, had committed a reprehensible act, and its reputation and prestige were bound to suffer when its guilt became known. Having committed a serious offense, one or the other of two courses were open to it: (1) to confess its guilt and make a full, frank correction; or (2) to try to keep the misdeed concealed. Unfortunately, the Institution adopted, at the beginning, the latter course, evidently in the belief that its great prestige, acquired through an honorable past, could crush any imputation against it. Indeed, that course did prove successful up to the time Orville Wright sent the Kitty Hawk plane abroad.

But the harsh reality was that the Smithsonian, no matter how clean its past reputation, had done something wrong, and its reputation and prestige were bound to take a hit once its wrongdoing was revealed. Having committed a serious offense, it had two options: (1) admit its guilt and make a complete and honest correction; or (2) try to keep the misdeed under wraps. Unfortunately, the Institution initially chose the second option, clearly believing that its strong reputation built on an honorable history could overpower any accusations against it. In fact, this strategy worked until Orville Wright sent the Kitty Hawk plane overseas.

Dr. Abbot had not been responsible for the disgraceful situation he inherited when he became Secretary of the Smithsonian and found himself in the unenviable position of having to make an embarrassing decision. But it seemed as if he could not quite muster the courage320 to break away from the course the Institution had been following. Instead, he at first tried to justify the Institution’s previous attitude, though he did concede that it was not true that the Langley plane had been flown at Hammondsport “without modification” as the Smithsonian had published. There were “many differences,” he admitted. “Some of the changes were favorable, some unfavorable, to success,” he declared. “Just what effects, favorable or unfavorable, the sum total of these changes produced can never be precisely known.” Orville Wright, on the other hand, insisted that the “effects, favorable or unfavorable” could easily be determined by experts if only the changes were made known to them.

Dr. Abbot wasn't to blame for the embarrassing situation he faced when he took on the role of Secretary of the Smithsonian. He found himself in the tough spot of having to make a difficult choice. However, it seemed he couldn't quite gather the courage to move away from the direction the Institution had been heading. Instead, he initially tried to defend the Institution’s past stance, although he did admit that it wasn't true the Langley plane had flown at Hammondsport “without modification,” as the Smithsonian had claimed. He acknowledged that there were “many differences.” “Some of the changes were positive, some negative, for success,” he stated. “The exact impact, positive or negative, of all these changes can never be accurately known.” In contrast, Orville Wright maintained that the “effects, positive or negative” could easily be assessed by experts if only they were informed about the changes.

But Dr. Abbot still failed to publish the changes.

But Dr. Abbot still didn’t publish the changes.

Since then Orville Wright more than once let the Smithsonian know what he thought should be done to settle the controversy. In a letter he sent to Dr. Abbot on December 23, 1933, he wrote:

Since then, Orville Wright has repeatedly informed the Smithsonian about his views on how to resolve the controversy. In a letter he sent to Dr. Abbot on December 23, 1933, he wrote:

The points involved in the straightening of the record are not on matters of mere opinion. They are on matters of fact, which at this time can be easily and definitely established. All that I have demanded in the past has been that there be an impartial investigation of the matters in controversy and that the record then be made to agree with the facts.

The issues at hand regarding correcting the record aren't just opinions. They are facts that can be verified easily and definitively at this point. All I've asked for in the past is a fair investigation into the disputed matters and for the record to be aligned with the facts.

The suggestion made by me in 1925, three years before the plane left this country, that a committee be appointed to make an impartial investigation and settle the controversy, received from the Smithsonian no response. Nevertheless, I shall be most happy now to join with you in the selection of such a committee, with the understanding that321 the committee will fully investigate the matters in controversy and will make a full report of its findings.

The suggestion I made in 1925, three years before the plane left this country, for a committee to be formed to conduct an unbiased investigation and resolve the disagreement, received no response from the Smithsonian. However, I would be very happy to join you in choosing such a committee, with the understanding that321 the committee will thoroughly investigate the issues in dispute and provide a complete report of its findings.

In a letter a few weeks later, Dr. Abbot suggested that, if it were agreeable to Orville Wright, he would ask three public officials each to name an expert to serve on “an impartial committee” of three to investigate and report on the experiments at Hammondsport in 1914, and their bearing on the capacity of the Langley machine for flight in 1903. But all three of the Government officials that he mentioned were members of the Smithsonian. If the suggested plan had been followed, presumably Dr. Abbot himself would have had the naming of the investigating committee, for in organizations, such as the Smithsonian, appointing of committees by members is usually referred to the Secretary. (Chief Justice Taft, Chancellor of the Smithsonian, had written that because he did not have the time, he let questions regarding the Institution be settled by the Secretary.) It appeared to Orville Wright that Dr. Abbot did not have too much confidence in the findings of a committee, even if wholly appointed by the Smithsonian, for Abbot specified just what questions the committee was to investigate. And most of these were wholly irrelevant.

In a letter a few weeks later, Dr. Abbot suggested that if it was okay with Orville Wright, he would ask three public officials to each name an expert to serve on “an impartial committee” of three to investigate and report on the experiments at Hammondsport in 1914, and how they related to the Langley machine's capacity for flight in 1903. However, all three of the government officials he mentioned were members of the Smithsonian. If the proposed plan had gone ahead, Dr. Abbot would likely have been responsible for selecting the investigating committee since, in organizations like the Smithsonian, the appointment of committees by members is typically handled by the Secretary. (Chief Justice Taft, Chancellor of the Smithsonian, had stated that because he didn’t have the time, he allowed the Secretary to decide questions concerning the Institution.) Orville Wright felt that Dr. Abbot didn’t have much confidence in the conclusions of a committee, even if it was entirely appointed by the Smithsonian, because Abbot specified exactly what questions the committee should investigate. Most of these questions were completely irrelevant.

A little later, Orville Wright, in reply to a letter from Dr. Abbot, made this suggestion: That the Smithsonian publish a paper presenting a list of specifications in parallel columns of those features of the Langley machine of 1903 and of the Hammondsport machine of 1914 in which there were differences, along322 with an introduction stating that the Smithsonian now finds it was misled by the Zahm report of 1914; that through the Zahm report the Institution was led to believe that the aeroplane tested at Hammondsport was “as nearly as possible in its original condition”; that as a result of this misinformation the Smithsonian had published erroneous statements from time to time alleging that the original Langley machine, without modification, or with only such modifications as were necessary for the addition of floats, had been successfully flown at Hammondsport in 1914; that it ask its readers to disregard all of its former statements and expressions of opinion regarding the flights at Hammondsport in 1914, because these were based upon misinformation as the accompanying list of changes would show. (The accuracy of the list of changes was to be settled before publication by the Smithsonian, Orville Wright and a mediator.)

A little later, Orville Wright replied to a letter from Dr. Abbot with this suggestion: That the Smithsonian publish a paper that lists the specifications in side-by-side columns of the differences between the Langley machine of 1903 and the Hammondsport machine of 1914, along with an introduction stating that the Smithsonian now realizes it was misled by the Zahm report of 1914; that through the Zahm report, the Institution was led to believe that the airplane tested at Hammondsport was “as nearly as possible in its original condition”; that because of this misinformation, the Smithsonian had published incorrect statements from time to time claiming that the original Langley machine, without changes, or with only the modifications needed to add floats, had been flown successfully at Hammondsport in 1914; that it should ask its readers to disregard all of its previous statements and opinions about the flights at Hammondsport in 1914, because these were based on misinformation as the attached list of changes would demonstrate. (The accuracy of the list of changes was to be confirmed before publication by the Smithsonian, Orville Wright, and a mediator.)

But the suggestion was not followed.

But the suggestion was not taken.

It will be noted that Orville Wright did not even ask that the Smithsonian should say it did not believe the original Langley machine could fly. All he asked was that the facts regarding the Hammondsport trials be made public by the Smithsonian. It has been his contention that if this information had not been withheld, then anyone having a knowledge of the science of aviation could form for himself an opinion regarding the importance of the differences between the original Langley machine of 1903 and the Zahm-Curtiss-Langley machine of 1914. He has been willing to stake his and his brother’s reputation on the conclusion that a committee of323 competent disinterested scientists would reach if they had all the facts.

It’s important to note that Orville Wright didn’t even request that the Smithsonian claim it didn’t believe the original Langley machine could fly. All he asked was for the Smithsonian to make the facts about the Hammondsport trials public. He argued that if this information hadn’t been kept secret, anyone knowledgeable about aviation science could form their own opinion about the significance of the differences between the original Langley machine from 1903 and the Zahm-Curtiss-Langley machine from 1914. He was willing to bet his and his brother’s reputation on the conclusion that a committee of323 competent and unbiased scientists would come to if they had all the facts.

Dr. Abbot, in the years 1933 to 1942, proposed a number of times to issue a statement by the Smithsonian for the declared purpose of correcting the record. All these statements, however, except the final one, would have left the record as confusing as it was before. The first statement proposed was to contain: (1) A history of Langley’s work up to December, 1903, which was entirely irrelevant to the controversy and would have filled hundreds, if not thousands, of pages of print; (2) a history of the Langley machine from 1903 to 1914, which, likewise, had no part in the controversy; (3) A. F. Zahm’s report of the tests of the Langley machine at Hammondsport in 1914, with no correction by the Institution of its many misrepresentations of fact about those tests; (4) Orville Wright’s list of changes made in the Langley machine at Hammondsport in 1914, without any acknowledgement by the Smithsonian of its accuracy. (The accuracy of the list was later acknowledged by the Institution.) (5) A long list of “amendments” by A. F. Zahm to Orville Wright’s list of changes. (These “amendments,” or comments, had the appearance of being corrections of errors in Orville Wright’s list, though a careful reading will disclose that they were not corrections.)

Dr. Abbot, between 1933 and 1942, suggested multiple times that the Smithsonian should release a statement aimed at clearing up the record. However, all these statements, except for the last one, would have made the record just as confusing as it was before. The first proposed statement was intended to include: (1) a history of Langley’s work up to December 1903, which was completely unrelated to the issue at hand and would have taken up hundreds, if not thousands, of pages; (2) a history of the Langley machine from 1903 to 1914, which also had no relevance to the controversy; (3) A. F. Zahm’s report on the tests of the Langley machine at Hammondsport in 1914, without any corrections from the Institution regarding its numerous misrepresentations of those tests; (4) Orville Wright’s list of modifications made to the Langley machine at Hammondsport in 1914, with no acknowledgment from the Smithsonian of its accuracy. (The accuracy of this list was later recognized by the Institution.) (5) An extensive list of “amendments” from A. F. Zahm to Orville Wright’s list of changes. (These “amendments” or comments appeared to be corrections to errors in Orville Wright’s list, but a close reading will reveal that they were not actual corrections.)

Dr. Abbot’s proposed statement thus would have dealt almost entirely with matters not involved in the controversy. About all that did touch on questions in the controversy would have been contradictory statements324 by Zahm and Wright. The reader, having no way of knowing which one was telling the truth, would have been more confused than ever.

Dr. Abbot’s proposed statement would have mostly focused on issues unrelated to the controversy. The only part that actually touched on the debate would have been the conflicting statements324 from Zahm and Wright. The reader, without knowing who was telling the truth, would have felt even more confused.

All the publications proposed later, except the final one, were similar to the first, though less voluminous. None of them would have clarified the situation any more than the first. Not until September, 1942, did Dr. Abbot submit a statement which, with some amendments, was satisfactory to Orville Wright. That statement, published by the Smithsonian on October 24, 1942, is given here verbatim, as follows:

All the publications suggested later, except for the final one, were similar to the first, although less extensive. None of them would have clarified the situation any better than the first. It wasn't until September 1942 that Dr. Abbot submitted a statement that, with some changes, satisfied Orville Wright. That statement, published by the Smithsonian on October 24, 1942, is provided here exactly as follows:

THE 1914 TESTS OF THE LANGLEY “AERODROME”18

THE 1914 TESTS OF THE LANGLEY “AERODROME”18

By C. G. ABBOT
Secretary, Smithsonian Institution

By C. G. ABBOT *Secretary, Smithsonian Institution*

Note—This paper has been submitted to Dr. Orville Wright, and under date of October 8, 1942, he states that the paper as now prepared will be acceptable to him if given adequate publication.

Note—This paper has been submitted to Dr. Orville Wright, and on October 8, 1942, he stated that the paper as it is now prepared will be acceptable to him if it receives proper publication.

It is everywhere acknowledged that the Wright brothers were the first to make sustained flights in a heavier-than-air machine at Kitty Hawk, North Carolina, on December 17, 1903.

It is widely recognized that the Wright brothers were the first to achieve sustained flights in a heavier-than-air aircraft at Kitty Hawk, North Carolina, on December 17, 1903.

Mainly because of acts and statements of former officers of the Smithsonian Institution, arising from tests made with the reconditioned Langley plane of 1903 at Hammondsport, New York, in 1914, Dr. Orville Wright feels that the Institution adopted an unfair and injurious attitude. He therefore sent the original Wright Kitty Hawk plane to England in 1928. The nature of the acts and statements referred to are as follows:

Mainly because of actions and comments made by former officials of the Smithsonian Institution, stemming from tests conducted with the refurbished Langley plane of 1903 at Hammondsport, New York, in 1914, Dr. Orville Wright believes that the Institution took an unfair and damaging stance. As a result, he sent the original Wright Kitty Hawk plane to England in 1928. The nature of the actions and comments mentioned is as follows:

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In March 1914, Secretary Walcott contracted with Glenn H. Curtiss to attempt a flight with the Langley machine. This action seems ill considered and open to criticism. For in January 1914, the United States Court of Appeals, Second Circuit, had handed down a decision recognizing the Wrights as “pioneers in the practical art of flying with heavier-than-air machines” and pronouncing Glenn H. Curtiss an infringer of their patent. Hence, in view of probable further litigation, the Wrights stood to lose in fame and revenue and Curtiss stood to gain pecuniarily, should the experiments at Hammondsport indicate that Langley’s plane was capable of sustained flight in 1903, previous to the successful flights made December 17, 1903, by the Wrights at Kitty Hawk, N. C.

In March 1914, Secretary Walcott made a deal with Glenn H. Curtiss to try a flight with the Langley machine. This decision seems poorly thought out and invites criticism. In January 1914, the United States Court of Appeals, Second Circuit, had ruled that the Wright brothers were “pioneers in the practical art of flying with heavier-than-air machines” and declared Glenn H. Curtiss to be infringing on their patent. Therefore, with the likelihood of more legal battles ahead, the Wrights risked losing in terms of reputation and income, while Curtiss stood to profit financially if the tests in Hammondsport showed that Langley’s plane was capable of sustained flight in 1903, before the successful flights by the Wrights on December 17, 1903, at Kitty Hawk, N.C.

The machine was shipped to Curtiss at Hammondsport, N. Y., in April. Dr. Zahm, the Recorder of the Langley Aerodynamical Laboratory and expert witness for Curtiss in the patent litigation, was at Hammondsport as official representative of the Smithsonian Institution during the time the machine was being reconstructed and tested. In the reconstruction the machine was changed from what it was in 1903 in a number of particulars as given in Dr. Wright’s list of differences which appears later in this paper. On the 28th of May and the 2d of June, 1914, attempts to fly were made. After acquiring speed by running on hydroplane floats on the surface of Lake Keuka the machine lifted into the air several different times. The longest time off the water with the Langley motor was approximately five seconds. Dr. Zahm stated that “it was apparent that owing to the great weight which had been given to the structure by adding the floats it was necessary to increase the propeller thrust.” So no further attempts were made to fly with the Langley 52 HP engine.

The machine was sent to Curtiss in Hammondsport, N.Y., in April. Dr. Zahm, the Recorder of the Langley Aerodynamical Laboratory and expert witness for Curtiss in the patent lawsuit, was in Hammondsport as the official representative of the Smithsonian Institution while the machine was being rebuilt and tested. During the reconstruction, the machine was modified from its 1903 design in several ways, as detailed in Dr. Wright’s list of differences included later in this paper. On May 28 and June 2, 1914, attempts to fly were made. After gaining speed by running on hydroplane floats on Lake Keuka, the machine took off into the air several times. The longest flight with the Langley motor lasted about five seconds. Dr. Zahm noted that “it was clear that due to the significant weight added to the structure by the floats, it was necessary to boost the propeller thrust.” Therefore, no further attempts were made to fly with the Langley 52 HP engine.

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It is to be regretted that the Institution published statements repeatedly19 to the effect that these experiments of 1914 demonstrated that Langley’s plane of 1903 without essential modification was the first heavier-than-air machine capable of maintaining sustained human flight.

It is unfortunate that the Institution repeatedly published statements to the effect that these experiments of 1914 showed that Langley’s 1903 plane, without significant changes, was the first heavier-than-air machine capable of sustained human flight.

As first exhibited in the United States National Museum, January 15, 1918, the restored Langley plane of 1903 bore the following label:

As first shown at the United States National Museum on January 15, 1918, the restored Langley plane from 1903 had the following label:

THE ORIGINAL, FULL-SIZE
LANGLEY FLYING MACHINE, 1903

THE ORIGINAL, FULL-SIZE
LANGLEY FLYING MACHINE, 1903

For this simple label others were later substituted containing the claim that Langley’s machine “was the first man-carrying aeroplane in the history of the world capable of sustained free flight.”

For this simple label, others were later replaced with one that claimed Langley’s machine “was the first man-carrying airplane in the history of the world capable of sustained free flight.”

Though the matter of the label is not now an issue, it seems only fair to the Institution to say that in September 1928, Secretary Abbot finally caused the label of the Langley machine to be changed to read simply as follows:

Though the issue of the label isn't a concern anymore, it seems fair to the Institution to note that in September 1928, Secretary Abbot finally had the label of the Langley machine changed to read simply as follows:

LANGLEY AERODROME

THE ORIGINAL SAMUEL PIERPONT LANGLEY
FLYING MACHINE OF 1903, RESTORED.

Deposited by
The Smithsonian Institution

LANGLEY AERODROME

THE ORIGINAL SAMUEL PIERPONT LANGLEY
FLYING MACHINE OF 1903, RESTORED.

Deposited by
The Smithsonian Institution

301,613

301,613

This change has frequently been overlooked by writers on the controversy.

This change has often been ignored by writers discussing the controversy.

In January 1942, Mr. Fred C. Kelly, of Peninsula, Ohio, communicated to me a list of differences between the Langley plane as tested in 1914 and as tested in 1903, which he had received from Dr. Wright. This list is given327 verbatim below. The Institution accepts Dr. Wright’s statement as correct in point of facts. Inferences from the comparisons are primarily the province of interested experts and are not discussed here.

In January 1942, Mr. Fred C. Kelly from Peninsula, Ohio, sent me a list of differences between the Langley plane tested in 1914 and the one tested in 1903, which he had received from Dr. Wright. This list is provided327 verbatim below. The Institution accepts Dr. Wright’s statement as accurate regarding the facts. Any conclusions drawn from the comparisons are mainly for interested experts and are not covered here.

COMPARISON OF THE LANGLEY MACHINE OF 1903 WITH
THE HAMMONDSPORT MACHINE OF MAY-JUNE, 1914.

COMPARISON OF THE LANGLEY MACHINE OF 1903 WITH
THE HAMMONDSPORT MACHINE OF MAY-JUNE, 1914.

Fig. 3. Langley Wing Trussing 1903.

Fig. 3. Langley Wing Trussing 1903.

Fig. 4. Hammondsport Wing Trussing 1914.

Fig. 4. Hammondsport Wing Trussing 1914.

LANGLEY, 1903. HAMMONDSPORT, 1914.
WINGS.
1 Size: 11′6″ × 22′6″ (L.M.A p. 206) Size: 10′11¾″ × 22′6″
  __A_TAG_PLACEHOLDER_0__ The initials L.M. in the first column refer to the Langley Memoir.
2 Zone: 1040 sq. ft. (L.M. p. 206) Zone: 988 sq. ft.
3 Aspect Ratio: 1.96 Aspect Ratio: 2.05
4 Camber: 1/12 (L.M. p. 205) Camber: 1/18
5 Cutting Edge: Wire 1/16″ diameter (L.M. Pl.66) Cutting Edge: Cylindrical spar 1½″ dia. at inner end, tapering to 1″ dia. at outer end.
6 Covering up: Cotton fabric, not varnished. Covering up: Cotton fabric, varnished.
7 Central Spar: Cylindrical wooden spar, measuring 1½″ dia. for half its length and tapering to 1″ at its tip. (L.M. p. 204.) Located on upper side of wing. Center Spar: Cylindrical spar about 1½″ dia. at inner end, tapering to about 1″ dia. at outer end. Located on upper side of wing. This center spar was reinforced (1) by an extra wooden member on the underside of the wing, which measured 1″ × 1½″ and extended to the 7th rib from the center of the machine; and (2) by another wooden reinforcement on the underside extending out about one-fourth of the length of the wing.
8 Ribs: Hollow box construction. (L.M. Plates 66, 67.) Ribs: Most of the original Langley box ribs were replaced with others made at Hammondsport. (Manly letter, 1914.) The Hammondsport ribs were of solid construction and made of laminated wood. That part of the rib in front of the forward spar was entirely omitted.328
9 Lower Guy Wires: A single round wooden post for each pair of wings (see Fig. 3), 1¼″ in dia. 6½″ long. (L.M. Plate 62, p. 184.) Lower Guy-Wires: Four for each pair of wings (see Fig. 4), two of which were of streamline form measuring 1¼″ × 3½″ × 54″ long; and two measuring 2″ × 2″ with rounded corners, 3′9″ long.
10 The front wing guy-post was located 28½″ in front of the main center spar. (L.M. Plate 53.) The front-wing guy-posts were located directly underneath the main center spar, 28½″ further rearward than in 1903.
11 The rear wing guy-post was located 31½″ in front of the main center spar. (L.M. Plate 53.) The rear wing guy-posts were located directly under the main center spar, 31½″ further rearward than in 1903.
12 Upper Guy Posts: For each pair of wings a single steel tube ¼″ dia., 43″ long. (L.M. p. 184, pl. 62.) Upper Guy Posts: For each pair of wings, two streamline wooden posts each 1¼″ × 3½″, 76″ long, forming an inverted V. (see Fig. 4.)
13 Front wing upper guy-post located 28½″ in front of the main center spar. (L.M. pl. 53.) Front wing upper guy-posts located directly over main spar, 28½″ further rearward than in 1903.
14 The rear wing upper guy-post was located 31½″ in front of the main center spar. (L.M. pl. 53.) The rear wing guy-posts were located directly over the main center spar, 31½″ further rearward than in 1903.329
15 Trussing: The wing trussing wires were attached to the spars at the 5th, 7th and 9th ribs out from the center (L.M. pl. 54.) The angles between these wires and the spars to which they were attached are shown in Fig. 3. Trussing: A different system of wing trussing was used, and the wing trussing wires were attached to the spars at the 3rd, 6th and 9th ribs from the center. The angles between these wires and the spars to which they were attached were all different from those in the original Langley machine. (see Fig. 4.)
CONTROL SURFACES.
16 Vane Rudder: A split vane composed of two surfaces united at their leading edges and separated 15″ at their trailing edges, thus forming a wedge. Each surface measured 2′3″ × 4′6″, with aspect ratio .5. (L.M. p. 214, pls. 53, 54.) Vertical Stabilizer: The Langley vane rudder was replaced by a single plane vertical rudder which measured 3′6″ × 5′, with aspect ratio of .7.
17 Operated by means of a wheel located slightly in front of the pilot at his right side and at the height of his shoulder (L.M. p. 216, pls. 53, 54.) Operated at Hammondsport through the Curtiss steering wheel in some tests (Zahm affidavit pp. 5, 6), through the Curtiss shoulder yoke in some others (Manly letter, 1914), and fixed so as not to be operable at all in still others (Zahm affidavit p. 7).
18 Used for steering only. (L.M. p. 214.) Used “as a vertical aileron to control the lateral poise of the machine” (Zahm affidavit p. 6), as well as for steering (Zahm affidavit p. 7).
19 Penaud Tail: This was a dart-shaped tail having a vertical and a horizontal surface (Penaud tail), each measuring 95 sq. ft. It was located in the rear of the main frame. Tail fin: Same size and construction as in 1903.
20 Attached to a bracket extending below the main frame. Attached to same bracket at a point about 8″ higher than in 1903.
21 “Normally inactive,” (L.M. p. 216) but adjustable about a transverse horizontal axis by means of a self-locking wheel located at the right side of the pilot, even with his back, and at the height of his shoulder. (L.M. pls. 51, 53.)330 Operable about a transverse horizontal axis and connected to a regular Curtiss elevator control post directly in front of the pilot (Zahm affidavit p. 5).
22 Immovable about a vertical axis. (L.M. p. 214, pl. 56, Fig. 1.) No means were provided for adjusting this rudder about a vertical axis in flight. “Although it was necessary that the large aerodrome should be capable of being steered in a horizontal direction, it was felt to be unwise to give the Penaud tail and rudder motion in the horizontal plane in order to attain this end.” (L.M. p. 214.) Immovable about a vertical axis on May 28, 1914, only. Thereafter it was made movable about a vertical axis and was connected through cables to a Curtiss steering wheel mounted on a Curtiss control post directly in front of the pilot.
23 None: A fixed vertical surface underneath the main frame measuring 3′2″ in height by 6′ average length. Area 19 sq. ft. (L.M. pl. 53.) Keel: Entirely omitted.
SYSTEM OF CONTROL.
24 Lateral Stability : The dihedral only was used for maintaining lateral balance. (L.M. p. 45.) Lateral Stability: Three means were used for securing lateral balance at Hammondsport: The dihedral angle as used by Langley, a rudder which “serves as a vertical aileron” (Zahm affidavit p. 6), and the Penaud tail rudder. The last two constituted a system “identical in principle with that of Complainant’s [Wright] combined warping of the wings and the use of the vertical rudder.” (Zahm affidavit p. 6.)
25 Long-term Stability: Langley relied upon the Penaud system of inherent stability for maintaining the longitudinal equilibrium. “For the preservation of the equilibrium [longitudinal] of the aerodrome, though the aviator might assist by such slight movements as he was able to make in the limited space of the aviator’s car, the main reliance was upon the Penaud tail.” (L.M. p. 215.) Long-term Stability: At Hammondsport the Penaud inherent longitudinal stability was supplemented with an elevator system of control.
26 Steering wheel: Steering in the horizontal plane was done entirely by the split-vane steering rudder located underneath the main frame. (L.M. p. 214.) Steering wheel: On one day, May 28, 1914, steering in the horizontal plane was done with the vertical rudder which had been substituted for the original Langley331 split-vane steering rudder. After May 28th the steering was done by the vertical surface of the tail rudder (Zahm affidavit p. 7), which in 1903 was immovable about a vertical axis (L.M. p. 214.)
POWER PLANT.
27 Motor: Langley 5 cylinder radial. Motor: Langley motor modified.
28 Start-up: Jump spark with dry cell batteries. (L.M. p. 262.) Start: Jump spark with magneto.
29 Carburetor: Balzer carburetor consisting of a chamber filled with lumps of porous cellular wood saturated with gasoline. The air was drawn through this wood. There was no float feed. (L.M. p. 225.) Carburetor: Automobile type with float feed.
30 Heater: Tubes with radiating fins. Heater: Automobile radiator of honeycomb type.
31 Propellers: Langley propellers (L.M. pl. 53, pp. 178–182). Propellers: Langley propellers modified “after fashion of early Wright blades.”
LAUNCHING AND FLOATS.
32 Launching: Catapult mounted on a houseboat. Launch: Hydroplanes, developed 1909–1914, attached to the machine.
33 Balloons: Five cylindrical tin floats, with conical ends, attached to underside of main frame at appropriate points, and about six feet above lowest part of machine. Balloons: Two wooden hydroplane floats, mounted beneath and about 6 feet to either side of the center of the machine at the lateral extremities of the Pratt system of trussing used for bracing the wing spars of the forward wings; and one (part of the time two) tin cylindrical floats with conical ends, similar to but larger than the Langley floats, mounted at the center of the Pratt system of trussing used for bracing the rear wings. All of the floats were mounted from four to five feet lower than the floats of the original Langley, thus keeping the entire machine above the water.332
WEIGHT.
34 Total Weight: With pilot, 850 pounds (L.M. p. 256). Total Weight: With pilot, 1170 pounds.
35 Center of Gravity: ⅜″ above line of thrust. Center of Gravity: About one foot below line of thrust.

Since I became Secretary, in 1928, I have made many efforts to compose the Smithsonian-Wright controversy, which I inherited. I will now, speaking for the Smithsonian Institution, make the following statement in an attempt to correct as far as now possible acts and assertions of former Smithsonian officials that may have been misleading or are held to be detrimental to the Wrights.

Since I became Secretary in 1928, I have worked hard to resolve the Smithsonian-Wright controversy that I inherited. Now, on behalf of the Smithsonian Institution, I want to make the following statement to address, as much as possible, the actions and claims of previous Smithsonian officials that may have been misleading or harmful to the Wrights.

1. I sincerely regret that the Institution employed to make the tests of 1914 an agent who had been an unsuccessful defendant in patent litigation brought against him by the Wrights.

1. I truly regret that the Institution chose an agent for the tests of 1914 who had previously been an unsuccessful defendant in patent litigation filed against him by the Wrights.

2. I sincerely regret that statements were repeatedly made by officers of the Institution that the Langley machine was flown in 1914 “with certain changes of the machine necessary to use pontoons,” without mentioning the other changes included in Dr. Wright’s list.

2. I genuinely regret that officials from the Institution repeatedly stated that the Langley machine was flown in 1914 "with certain changes to the machine necessary to use pontoons," without acknowledging the other modifications listed by Dr. Wright.

3. I point out that Assistant Secretary Rathbun was misinformed when he stated that the Langley machine “without modification” made “successful flights.”

3. I want to highlight that Assistant Secretary Rathbun was misinformed when he said that the Langley machine, “without modification,” made “successful flights.”

4. I sincerely regret the public statement by officers of the Institution that “The tests” (of 1914) showed “that the late Secretary Langley had succeeded in building the first aeroplane capable of sustained free flight with a man.”

4. I truly regret the public statement made by representatives of the Institution that “The tests” (of 1914) demonstrated “that the late Secretary Langley had succeeded in building the first aeroplane capable of sustained free flight with a person.”

5. Leaving to experts to formulate the conclusions arising from the 1914 tests as a whole, in view of all the facts, I repeat in substance, but with amendments, what I have already published in Smithsonian Scientific Series, Vol. 12, 1932, page 227:

5. Letting the experts draw conclusions from the 1914 tests overall, considering all the facts, I restate, but with some changes, what I previously published in Smithsonian Scientific Series, Vol. 12, 1932, page 227:

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333

The flights of the Langley aerodrome at Hammondsport in 1914, having been made long after flying had become a common art, and with changes of the machine indicated by Dr. Wright’s comparison, as given above, did not warrant the statements published by the Smithsonian Institution that these tests proved that the large Langley machine of 1903 was capable of sustained flight carrying a man.

The flights from the Langley aerodrome at Hammondsport in 1914 happened long after flying had become a common skill. Changes to the aircraft are noted by Dr. Wright’s comparison mentioned above. These flights do not support the claims published by the Smithsonian Institution that these tests demonstrated that the large Langley machine from 1903 was capable of sustained flight with a person on board.

6. If the publication of this paper should clear the way for Dr. Wright to bring back to America the Kitty Hawk machine to which all the world awards first place, it will be a source of profound and enduring gratification to his countrymen everywhere. Should he decide to deposit the plane in the United States National Museum, it would be given the highest place of honor, which is its due.

6. If this paper helps Dr. Wright bring the Kitty Hawk machine back to America, which the whole world recognizes as number one, it will be a deep and lasting source of pride for his fellow countrymen everywhere. If he chooses to display the plane in the United States National Museum, it would rightfully receive the highest honor.

Publication of this statement in the Smithsonian Annual Report presumably should mark the end of the long controversy.

Publication of this statement in the Smithsonian Annual Report should mark the end of the long controversy.

FOOTNOTES

1 Note that the two families spelled the same name differently.

1 Keep in mind that the two families spelled the same name in different ways.

2 Owned years afterward by Orville Wright.

2 Owned years later by Orville Wright.

3 First published in Flying.

__A_TAG_PLACEHOLDER_0__ First published in *Flying*.

4 Orville had arranged the camera on a tripod pointing to where he hoped the machine would be after leaving the track. The negative was developed by Orville after his return to Dayton.

4 Orville set up the camera on a tripod aimed at where he thought the machine would land after leaving the track. He developed the film after he got back to Dayton.

5 The Wrights carried 70 pounds of iron bars in many of the flights of 1904-’05, and could fly with less power than if that load had not been carried. Here is the explanation: The center of gravity of their machine was so far back of the center of pressure on the wings that an air pressure of 70 pounds was required on the top side of the horizontal elevator in front, to make the center of lift and center of gravity coincide. Any downward pressure on the elevator, the brothers reasoned, regardless of whether produced by the air or by a weight, would have to be supported by the main planes. But if the downward pressure is obtained by use of the elevator, then two drags are created, one on the elevator itself, and the other on the wings, in consequence of carrying that extra pressure on the elevator. On the other hand, an equal downward pressure produced by a weight, carried at the same distance as the elevator in front of the wings, would add little to the drag on the elevator, because it would dispose of the necessity for a downward pressure on that part of the machine, and there would then be only the drag on the wings.

5 The Wright brothers carried 70 pounds of iron bars on many of their flights in 1904-’05 and could fly with less power than they would have needed without that load. Here’s how it worked: The center of gravity of their aircraft was positioned so far behind the center of pressure on the wings that 70 pounds of air pressure was needed on the top side of the horizontal elevator in front to align the center of lift with the center of gravity. The brothers figured that any downward pressure on the elevator, whether created by air or by weight, had to be supported by the main wings. But if the downward pressure was generated using the elevator, then two types of drag were created: one from the elevator itself and another from the wings due to the extra pressure on the elevator. Conversely, an equal amount of downward pressure created by a weight positioned the same distance in front of the wings as the elevator would add very little to the drag on the elevator, because it would eliminate the need for downward pressure on that part of the aircraft, resulting in only the drag on the wings.

6 All italics used in letters quoted in this chapter are supplied.

6 All italics in the letters quoted in this chapter are added.

7 Dienstbach was still a resident of New York in 1943.

7 Dienstbach was still living in New York in 1943.

8 When the airplane was first considered for military purposes, the Wrights thought the plane could be such a destructive instrument in warfare that no nation, no government, would risk subjecting people to the terrors it could create. Another reason why the brothers thought the machine might prevent war was the possibility that it could be used against those persons chiefly responsible for bringing on a war. That is, if one nation started an attack against another, with or without a declaration of war, the nation attacked could drop bombs on, say, assembled members of the legislature, or the buildings housing the highest officials of the aggressor country. That possibility, it was hoped, would deter any nation from taking warlike steps.

8 When the airplane was first considered for military use, the Wright brothers believed it could be such a devastating tool in warfare that no nation or government would risk exposing its people to the horrors it could unleash. Another reason the brothers thought the machine might prevent war was the idea that it could be used against those most responsible for starting a conflict. In other words, if one nation launched an attack on another, with or without a formal declaration of war, the attacked nation could drop bombs on, let's say, a gathering of lawmakers or the buildings where the top officials of the aggressor country worked. It was hoped that this possibility would discourage any nation from taking aggressive actions.

9 Though there was no agreement in regard to the altitude at which the machine would fly, the Wrights were willing to guarantee 1,000 feet, and said that so far as the machine itself was concerned it could be flown at an altitude of a mile. One of the Germans remarked that half a mile from the ground should be enough, as no gun in existence would be likely to hit so swiftly moving a target at that height.

9 Though there was no consensus on how high the machine would fly, the Wrights were confident enough to guarantee an altitude of 1,000 feet, claiming that the machine could be flown at a mile high. One of the Germans commented that half a mile above the ground should be sufficient, as no weapon currently available would be able to hit such a fast-moving target at that height.

10 Afterward a major general.

__A_TAG_PLACEHOLDER_0__ Later a major general.

11 The Wright monument on top of Kill Devil Hill, ordered by act of Congress and dedicated in November, 1932, is probably the most impressive memorial ever built anywhere in the world to do honor to anyone still living. Reaching sixty-one feet above Kill Devil Hill, with a powerful beacon light at its top, it may be seen for miles. About the four sides of the base reads a legend: In Commemoration of the Conquest of the Air by The Brothers Wilbur and Orville Wright, Conceived by Genius, Achieved by Dauntless Resolution and Unconquerable Faith.

11 The Wright monument on top of Kill Devil Hill, established by an act of Congress and dedicated in November 1932, is likely the most impressive memorial ever constructed anywhere in the world to honor someone still living. Soaring sixty-one feet above Kill Devil Hill, with a powerful beacon light at its peak, it can be seen for miles. Engraved around the four sides of the base is a message: In Commemoration of the Conquest of the Air by The Brothers Wilbur and Orville Wright, Conceived by Genius, Achieved by Dauntless Resolution and Unconquerable Faith.

“Anchoring” the once shifting sands of Kill Devil Hill by ingenious planting of suitable grasses and shrubbery provides a memorial in itself, as is the national park of three hundred acres that includes the hill.

“Anchoring” the once shifting sands of Kill Devil Hill by cleverly planting suitable grasses and shrubs creates a memorial in itself, as does the national park of three hundred acres that includes the hill.

12 A Wright monument at Le Mans, by the sculptor, Paul Landowski, was dedicated in 1920.

12 A Wright monument in Le Mans, created by the sculptor Paul Landowski, was dedicated in 1920.

13 A Wright monument at Pau was dedicated in 1931.

13 A Wright monument in Pau was unveiled in 1931.

14 From Wright Hill, near Dayton, on which there is a memorial monument, one has a view of the great government aviation center of Wright and Patterson fields, the latter of which includes the Huffman tract. The monument bears the legend: “In Commemoration of the Courage, Perseverance and Achievements of Wilbur and Orville Wright. Through Original Research the Wright Brothers Acquired Scientific Knowledge and Developed Theories of Aerodynamics which with their Invention of Aileron Control Enabled Them in 1903 to Build and Fly at Kitty Hawk the First Power-Driven, Man-Carrying Aeroplane Capable of Flight. Their Further Development of the Aeroplane Gave it a Capacity for Service which Established Aviation as one of the Great Forward Steps in Human Progress. As Scientists Wilbur and Orville Wright Discovered the Secret of Flight. As Inventors, Builders and Flyers, they Brought Aviation to the World.”

14 From Wright Hill, near Dayton, where there is a memorial monument, you can see the major government aviation center of Wright and Patterson fields, the latter of which includes the Huffman tract. The monument has the inscription: “In Commemoration of the Courage, Perseverance and Achievements of Wilbur and Orville Wright. Through Original Research, the Wright Brothers Gained Scientific Knowledge and Developed Theories of Aerodynamics, which, along with their Invention of Aileron Control, Allowed Them in 1903 to Build and Fly at Kitty Hawk the First Power-Driven, Man-Carrying Airplane Capable of Flight. Their Further Development of the Airplane Gave It a Capacity for Service that Established Aviation as one of the Great Forward Steps in Human Progress. As Scientists, Wilbur and Orville Wright Discovered the Secret of Flight. As Inventors, Builders, and Flyers, they Brought Aviation to the World.”

15 Bishop Wright lived to be nearly 89.

15 Bishop Wright lived to be almost 89.

16 The italics in all letters quoted in this chapter are supplied.

16 The italics in all the letters quoted in this chapter are added.

17 A still later plane, the one sold by the Wrights to the United States Government in 1909, was afterward given to the Smithsonian by the War Department, and it was placed on exhibition. It was wrongly labeled as the 1908 plane.

17 A later model, the one that the Wrights sold to the United States Government in 1909, was later given to the Smithsonian by the War Department, and it was put on display. It was incorrectly labeled as the 1908 model.

18 For an account of early Langley and Wright aeronautical investigations, see Smithsonian Report for 1900 and The Century Magazine of September 1908.

18 For a review of the early aeronautical research by Langley and Wright, check out the Smithsonian Report from 1900 and The Century Magazine from September 1908.

19 Smithsonian Reports: 1914, pp. 9, 219, 221, 222; 1915, pp. 14, 121; 1917, p. 4; 1918, pp. 3, 28, 114, 166. Report of U. S. National Museum, 1914, pp. 46 and 47.

19 Smithsonian Reports: 1914, pp. 9, 219, 221, 222; 1915, pp. 14, 121; 1917, p. 4; 1918, pp. 3, 28, 114, 166. Report of U.S. National Museum, 1914, pp. 46 and 47.

Transcriber’s Notes

Punctuation, hyphenation, and spelling were made consistent when a predominant preference was found in the original book; otherwise they were not changed.

Punctuation, hyphenation, and spelling were standardized when a clear preference was identified in the original book; otherwise, they were left unchanged.

Simple typographical errors were corrected; unbalanced quotation marks were remedied when the change was obvious, and otherwise left unbalanced.

Simple typos were fixed; unbalanced quotation marks were adjusted when the change was clear, and otherwise left unbalanced.

The index was not checked for proper alphabetization or correct page references.

The index was not reviewed for proper alphabetical order or accurate page references.


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