From Cave Paintings to the Internet A Chronological and Thematic Database on the History of Information and Media 1900 to 1910 Timeline

German mathematician and physicist David Hilbert publishes in Mathematische Probleme a list of twenty-three problems that he predicts will be of central importance to the advance of mathematics in the twentieth century.

In the second of these problems Hilbert called for a mathematical proof of the consistency of the arithmetic axioms—a question that influenced both the development of mathematical logic and computing.

Hilbert's paper was first published in Nachrichten der Königliche Gesellschaft zur Wissenschaften zu Göttingen, Mathematische-physikalischen Klasse, 3 (1900).

Hook & Norman, Origins of Cyberspace (2002) no. 320.

In this year 652,000 tons of paper were produced in the United Kingdom— roughly a sixfold increase since 1860. By this time 99% of the paper was produced by machine.

To improve data processing of the 1900 census, Herman Hollerith adds an automatic card feed to his electric punched card tabulating machine. 

The telegraph now connects most of the civilized world.

The American Booksellers Association is founded.

At the World Exposition in Paris Danish inventor Valdemar Poulsen records the voice of Emperor Franz Josef of Austria on his Telegraphone magnetic wire recorder. This is the oldest surviving magnetic audio recording.

You can listen to this recording at this link.

Canadian-American physicist Reginald A. Fessenden is the first to transmit human speech over radio waves using a spark-gap transmitter. He says:

“One, two, three, four, is it snowing where you are Mr. Thiessen? If it is, would you telegraph back to me?”

Mr. Thiessen, one mile way, heard the transmission.

Fessenden’s voice was the first ever to be transmitted by radio waves and heard by another person.

Halsey William Wilson publishes the first issue of the Reader’s Guide to Periodical Literature.

Arthur Korn invents an effective system of telephotography, or fax, called the Bildtelegraph.

Bildtelegraph became "widespread in continental Europe especially since a widely noticed transmission of a wanted-person photograph from Paris to London in 1908, used until the wider distribution of the radiofax. Its main competitors were the Bélinograf by Édouard Belin first, then since the 1930s the Hellschreiber, invented in 1929 by Rudolf Hell, a pioneer in mechanical image scanning and transmission" (Wikipedia article on Fax, accessed 04-22-2009).

German scientist, philosopher and science fiction writer Kurd Lasswitz publishes a story entitled Die Universalbibliothek, describing a library which is universal in the sense that it not only contains all existing written works, but all possible written works.

"In 1901 Kurd Lasswitz wrote a short story, 'The Universal Library,' elaborated upon by Jorge Luis Borges as 'The Library of Babel' in 1941. 'When it was proclaimed that the Library contained all books, the first impression was one of extravagant happiness,' Borges explained. 'All men felt themselves to be the masters of an intact and secret treasure. There was no personal or world problem whose solution did not exist.' Borges described the library in magical tones, whereas Lasswitz, a mathematician as well as a philosopher, got down to practical details. 'You say that everything will be in the library? The complete works of Goethe? The Bible? The works of all the classical philosophers?" Professor Wallhausen's companion, the magazine editor Max Burkel, asked. 'Yes, and with all the variations in wording nobody has thought up yet. You'll find the lost works of Tacitus and their translations into all living and dead languages. Furthermore, all of my and my friend Burkel's future works, all forgotten and still undelivered speeches in all parliaments, the official version of the Universal Declaration of Peace, the history of all the subsequent wars...'

" 'I'm going to subscribe right now,' Burkel exclaimed. 'This will furnish me with all the future volumes of my magazine; I won't have to read manuscripts any more!' Professor Wallhausen decided to calculate how many volumes (a large but finite number) the universal library would have to contain.  ' 'Will you — ' he turned to his daughter — 'hand me a sheet of paper and a pencil from my desk?' Max Burkel added, 'Bring the logarithm table too.' After a few minutes Wallhausen had the result, and wrote it down: 10^2,000,000.

" 'You make your life easy,' remarked Mrs. Wallhausen. 'Why don't you write it down in the normal manner?'

" 'Not me. This would take me at least two weeks, without time out for food and sleep. If you printed that figure, it would be a little over two miles long.'

' 'What is the name of that figure?' the daughter wanted to know.

"It has no name," Wallhausen replied.

"The number of books in the Universal Library lies somewhere between a googol (10^100) and a googolplex (10^googol), numbers which were named, by 8-year-old Milton Sirotta and his uncle Edward Kasner, in 1938. In Lasswitz's tale, Wallhausen went on to demonstrate that there would not be enough room in the visible universe to contain all possible printed books. Editor Max Burkel's hope for the 'elimination of the author from the literary business' was doomed" (Edge: The Third Culture, "The Universal Library" by George Dyson, 11.30.05, accessed 05-25-2009).

Ransom E. Olds, founder of the Olds Motor Vehicle Company, introduces the first assembly line in the American automobile industry, builds the first high-volume, mass-produced, low-priced American motor vehicle, and patents the assembly line concept.

In 1901 Olds designed the Curved Dash Oldsmobile which sold for $650.00.  Although the factory was destroyed by fire that year, the company still sold over 600 models of the Curved Dash. The assembly line approach to building automobiles enabled Olds to more than quintuple his factory’s output, from 425 cars in 1901 to 2,500 in 1902, to up to 5000 units in 1904.

The Library of Congress begins making printed Library of Congress catalogue cards (LC cards) available to libraries, thus promoting the development of catalogue card systems.

Wilbur Wright publishes "Some aeronautical experiments," Journal of the Western Society of Engineers 6 (1901) 489-510.

This speech delivered at the Western Society of Engineers in Chicago on September 18, 1901 was the Wright brothers' first publication on aeronautics, and the work which first made their experiments with motorless gliders known to the world. Wilbur Wright's paper, illustrated with photographs, described the brothers' progress over three seasons of glider flight, including their work from 1900 and 1901 at Kitty Hawk, North Carolina, during which they began to master the art of flight control and they solved the problem of wing warp drag by the addition of a vertical rear rudder. 

Wright made this address to the Western Society of Engineers at the urging of Octave Chanute, who was to a large degree responsible for encouraging the brothers' early work. The paper is prefaced by some remarks by Octave Chanute, discussing the possibility of motorized flight using a new lightweight steam or gas engine.

From October to December 1901 the Wrights built a six-foot wind tunnel in their shop and conducted systematic tests on miniature wings.

"The 'balances' they devised and mounted inside the tunnel to hold the wings looked crude, made of bicycle spokes and scrap metal, but were 'as critical to the ultimate success of the Wright brothers as were the gliders.' The devices allowed the brothers to balance lift against drag and accurately calculate the performance of each wing. They could also see which wings worked well as they looked through the viewing window in the top of the tunnel."

". . . The Wrights took a huge step forward and made basic wind tunnel tests on 200 wings of many shapes and airfoil curves, followed by detailed tests on 38 of them. The tests, according to biographer Howard, 'were the most crucial and fruitful aeronautical experiments ever conducted in so short a time with so few materials and at so little expense'. An important discovery was the benefit of longer narrower wings: in aeronautical terms, wings with a larger aspect ratio (wingspan divided by chord—the wing's front-to-back dimension). Such shapes offered much better lift-to-drag ratio than the broader wings the brothers had tried so far.

"With this knowledge, and a more accurate Smeaton number, the Wrights designed their 1902 glider. Using another crucial discovery from the wind tunnel, they made the airfoil flatter, reducing the camber (the depth of the wing's curvature divided by its chord). The 1901 wings had significantly greater curvature, a highly inefficient feature the Wrights copied directly from Lilienthal. Fully confident in their new wind tunnel results, the Wrights discarded Lilienthal's data, now basing their designs on their own calculations.  

"With characteristic caution, the brothers first flew the 1902 glider as an unmanned kite, as they had done with their two previous versions. Rewarding their wind tunnel work, the glider produced the expected lift. It also had a new structural feature: a fixed, rear vertical rudder, which the brothers hoped would eliminate turning problems. By 1902 they realized that wing-warping created 'differential drag' at the wingtips. Greater lift at one end of the wing also increased drag, which slowed that end of the wing, making the aircraft swivel—or yaw—so the nose pointed away from the turn. That was how the tailless 1901 glider behaved.

The improved wing design enabled consistently longer glides, and the rear rudder prevented adverse yaw—so effectively that it introduced a new problem. Sometimes when the pilot attempted to level off from a turn, the glider failed to respond to corrective wing-warping and persisted into a tighter turn. The glider would slide toward the lower wing, which hit the ground, spinning the aircraft around. The Wrights called this 'well digging'. Orville apparently visualized that the fixed rudder resisted the effect of corrective wing-warping when attempting to level off from a turn. He wrote in his diary that on the night of October 2, 'I studied out a new vertical rudder'. The brothers then decided to make the rear rudder movable to solve the problem. They hinged the rudder and connected it to the pilot's warping 'cradle', so a single movement by the pilot simultaneously controlled wing-warping and rudder deflection. Tests while gliding proved that the trailing edge of the rudder should be turned away from whichever end of the wings had more drag (and lift) due to warping. The opposing pressure produced by turning the rudder enabled corrective wing-warping to reliably restore level flight after a turn or a wind disturbance. Furthermore, when the glider banked into a turn, rudder pressure overcame the effect of differential drag and pointed the nose of the aircraft in the direction of the turn, eliminating adverse yaw.

"In short, the Wrights discovered the true purpose of the movable vertical rudder. Its role was not to change the direction of flight, but rather, to aim or align the aircraft correctly during banking turns and when leveling off from turns and wind disturbances. The actual turn—the change in direction—was done with roll control using wing-warping. The principles remained the same when ailerons superseded wing-warping.

"With their new method the Wrights achieved true control in turns for the first time on October 8, 1902, a major milestone. During September and October they made between 700 and 1,000 glides, the longest lasting 26 seconds and covering 622.5 feet (189.7 m). Hundreds of well-controlled glides after they made the rudder steerable convinced them they were ready to build a powered flying machine. Thus did three-axis control evolve: wing-warping for roll (lateral motion), forward elevator for pitch (up and down) and rear rudder for yaw (side to side).  

"On March 23, 1903, the Wrights applied for their famous patent for a 'Flying Machine', based on their successful 1902 glider. Some aviation historians believe that applying the system of three-axis flight control on the 1902 glider was equal to, or even more significant, than the addition of power to the 1903 Flyer. Peter Jakab of the Smithsonian asserts that perfection of the 1902 glider essentially represents invention of the airplane" (Wikipedia article on Wright Brothers, accessed 12-19-2009).

♦ On June 24, 1903 Wilbur Wright delivered a second paper at the Western Society of Engineers entitled "Experiments and Observations in Soaring Flight." This paper, illustrated with photographs, was published in the Journal of the Western Society of Engineers VIII (1903) 400-417. It contained a summary of their work leading up to the patent application. During the question session after the paper Wilbur stated that "We have not applied a motor to any of machines. The driving force has been gravity." (p. 415). 

Of the work described in their second paper Wilbur later testified in 1912:  

"This was the first time in the history of the world that lateral balance had been achieved by adjusting wing tips to respectively different angles of incidence on the right and left sides. It was also the first time that a vertical vane had been used in combination with wing tips, adjustable to respectively different angles of incidence, in balancing and steering an aeroplane . . . .We were the first to functionally employ a movable vertical tail in a flying aeroplane. We were the first to employ wings adjustable to respectively different angles of incidence in a flying aeroplane. We were the first to use the two in combination in a flying aeroplane (quoted in Freudenthal Flight into History.The Wright Brothers and the Air Age [1949] 60).

Upon returning to Kitty Hawk, the Wrights built their first motorized flyer, the Wright Flyer 1. Wilbur made the first unsuccessful attempt to fly it on December 14, 1903. On December 17th they made the first "sustained and controlled heavier-than-air powered flight"over the Kill Devil Hills (852 feet in 59 seconds). During the two following years the Wrights developed their flying machine into the first practical fixed wing aircraft. But until their patent was granted they made no public demonstration of motorized flight and published nothing further about their invention.

♦ The Wrights were granted patent 821,393 for their "Flying-Machine" on May 22, 1906. The patent described their method of three-axis control.

"The patent illustrates a non-powered flying machine—namely, the 1902 glider. The patent's importance lies in its claim of a new and useful method of controlling a flying machine, powered or not. The technique of wing-warping is described, but the patent explicitly states that other methods instead of wing-warping could be used for adjusting the outer portions of a machine's wings to different angles on the right and left sides to achieve lateral (roll) control. The concept of varying the angle presented to the air near the wingtips, by any suitable method, is central to the patent. The patent also describes the steerable rear vertical rudder and its innovative use in combination with wing-warping, enabling the airplane to make a coordinated turn, a technique that prevents hazardous adverse yaw, the problem Wilbur had when trying to turn the 1901 glider. Finally, the patent describes the forward elevator, used for ascending and descending" (Wikipedia article on Wright Brothers, accessed 12-19-2009).

Gibbs-Smith, The Invention of the Aeroplane 1799-1909 (1966) 37-40. Hook & Norman, The Haskell F. Norman Library of Science and Medicine (1991) no. 2266 & 2267 (stating incorrectly that Wright's second paper discusses motorized flight).

Guglielmo Marconi believes that he hears the letter “S” transmitted by Morse Code from Poldhu to Signal Hill, St. John's Newfoundland.

For many years this feat was considered the first transatlantic radio transmission, but later researchers concluded that the reception may not have been possible, and that Marconi may have heard static caused by lightning instead of transmitted information.

Ira Rubel develops the first commercial lithographic offset system, or offset press, for printing on paper.

"The inspiration was an accident. While operating his lithographic press he [Rubel] noticed that if he failed to insert paper the stone plate would transfer its image onto the rubber impression cylinder. When he then placed paper into the machine it would have the image on two sides, one from the stone plate and one from the rubber impression cylinder. To Rubel’s amazement, the image from the rubber impression cylinder was much clearer; the soft rubber was able to give a sharper look than the hard stone litho plate. Soon he created a machine that repeated this original “error”. This process was also noted by two brothers, Charles and Albert Harris, at about the same time. They produced an offset press for the Harris Automatic Press Company not long after Rubel created his press" (Wikipedia article on Offset printing, accessed 04-22-2009).

Russian schoolteacher and scientist Konstantin Eduardovich Tsiolkovsky (Tsiolkovskii) (Константи́н Эдуа́рдович Циолко́вский) publishes "Issledovanie mirovykh prostrantsv’ reaktivnymi priborami" ["Exploration of Space Using Reactive Devices"] in Научное Обозрьніе [Nauchnoe Obozrenie (Science review)] no. 5, May 1903, followed by part 2: "Issledovanie mirovykh prostrantsv’ reaktivnymi priborami" in Въстникъ Воздухоплаванія [Vestnik’ Vozdukhoplavania] / Revue de navigation aérienne (1911-12), numbers 19, 20, 21, 22, 2, 3, 5, 6, 7, 9, followed by part 3: Issledovanie mirovykh prostrantsv’ reaktivnymi priborami privately issued by Tsiolkovsky as a pamphlet in Kaluga.

These papers represent the beginnings of the modern era of spaceflight theory, preceding the earliest publications of Robert Goddard (1919) and Robert Esnault-Pelterie (1913). Tsiolkovsky had grasped the principle of reaction flight as early as 1883, and his 'Exploration of Space Using Reactive Devices' (1903) contains the first mathematical exposition of the reaction principle operating in space. In ‘Issledovanie mirovykh prostranstv reaktivnymi priborami’ . . . Tsiolkovsky set forth his theory of the motion of rockets, established the possibility of space travel by means of rockets, and adduced the fundamental flight formulas” (Dictionary of Scientific Biography).

“Tsiolkovsky not only solved theoretically such age-old questions as how to escape from the Earth’s atmosphere and gravitational field, but he also described several rockets. The first, conceived in 1903, was to be powered by liquid oxygen and liquid hydrogen—a very modern propellant combination . . . [Tsiolkovsky] made another discovery—the multistage rocket, which he called the ‘rocket train.’ Actually, this concept was not as new as Tsiolkovsky, who discovered it independently, thought; firework makers had used the principle for at least 200 years. But Tsiolkovsky was the first to analyze the idea in a sophisticated manner. The multistage technique, he concluded, was the only feasible means by which a space vehicle could attain the velocity necessary to escape from the Earth’s gravitational hold” (Von Braun & Ordway, History of Rocketry and Space Travel [1975] 42).

Tsiolkovsky’s “Issledovanie mirovykh prostrantsv’ reaktivnymi priborami” was published in three parts, issued irregularly over a period of 13 years. Both the first and second parts were published as journal articles, the second part appearing over ten numbers of the Vestnik’ Vozdukhoplavania between 1911 and 1912. The third part, published by Tsiolkovsky, was intended as a supplement to the first two parts, which even then had become very difficult to find: In a note printed on the inside front cover of the 1914 pamphlet, Tsiolkovsky stated that the earlier works were unobtainable, and that he himself had only one copy.  According to historian of rocketry Frank Winter, most copies of Tsiolkovsky's 1903 paper were suppressed, as  “the May 1903 issue of Nauchnoe Obozrenie also contained a politically revolutionary piece that led to the confiscation of almost all issues by the authorities” (Winter, "Planning for Spaceflight: 1880s to 1930s," in Blueprint for Space, ed Ordway and Liebermann [1992] 104-05.)

The significance of Tsiolkovsky's work in rocketry and space travel was greatest in Russia where it inspired the early development of rocketry and aerospace research independent of American and European workers. Tsiolkovsky's writings were also known to German rocketry researchers by the 1920s.

John Ambrose Fleming invents the two-element vacuum tube, or diode—an essential step in the development of radio, and later for electronic computing.

The final "Report of the Committee of the Society of Arts on Leather for Bookbinding" published in London confirms the view that bookbinding leathers being used are inferior to those used 50 years earlier. It attributes degradation to changes in methods of manufacture and tanning, and also to the "injurious effect of light and gas fumes" which are common in many libraries.

In his Annus Mirabilis Albert Einstein publishes three papers in the periodical, Annalen der Physik:

(1)         Ueber einen die Erzeugung und Verwandlung des Lichtes betreffenden heuristischen Gesichtpunkt.

(2)         Ueber die von der molekularkinetischen Theorie der Wärme gefordete Bewegung von in ruhenden Flüssigkeiten suspendierten Teilchen.

(3)         Zur Elektrodynamik bewegter Körper.

In the first paper Einstein suggested that light be considered a collection of independent particles of energy, which he called "light quanta."  Such a hypothesis, he argued, would provide an answer to the problem of black-body radiation where classical theories had failed, and would also explain several puzzling properties of fluorescence, photoionization and the photoelectric effect  Subsequent investigation led Einstein to propose, in 1909, the theory of wave-particle duality in radiation.  For this paper, and his paper on the photoelectric effect ("Zur Theorie der Lichterzeugung und Lichtabsorption," 1906), Einstein was awarded the Nobel Prize in Physics in 1921.

In his second paper Einstein used the old and puzzling phenomenon of Brownian motion as a demonstration of the fluctuation phenomena predicted by statistical mechanics, from which he deduced the correctness of the molecular-kinetic theory of heat and determined the basic scale of atomic dimensions.  This paper, and the experimental verification of its predictions, helped to convince skeptics of the physical reality of molecules.

The third paper, on the electrodynamics of moving bodies, was Einstein's first paper on special relativity.  Two revolutionary conclusions were reached in this paper: first, that all motion was relative to the inertial system in which it was measured; and second, that matter and energy are equivalent.  These theories, which were proved some years later, provided a radical reinterpretation of the universe, dethroning the Newtonian view which had ruled for over two centuries.

Concerning the early publishing histories of these papers see Hook & Norman, The Haskell F. Norman Library of Medicine and Science (1991) nos. 689-91.               

German anthropologist, ornithologist, and entomologist, and Director of the Royal Zoological, Anthropological and Ethnographical Museum in Dresden, Adolf Bernard Meyer, publishes "Studies of the Museums and Kindred Institutions of New York City, Albany, Buffalo, and Chicago, with Notes on Some European Institutions". This appeared in the Report of the United States National Museum for 1903, pp. 311-608, with forty plates. It was a translation revised by the author of studies he first published in German in 1900-02, and 1902-03.

Meyer's work was a pioneering illustrated study of the main museums of science and art in the United States and Europe as well as a survey of major research libraries in both America and Europe.  It includes striking images of building exteriors and interiors either no longer in existence or which have been extensively modified, and it also contains images of state of the art museum displays from the time.

Lee de Forest introduces a third electrode called the grid into the vacuum tube. The resulting triode could be used both as an amplifier and a switch.

Chemist, historian of chemistry, and bibliographer John Ferguson publishes Bibliotheca Chemica. A Catalogue of the Alchemical, Chemical, and Pharmaceutical Books in the Collection of the Late James Young of Kelly and Duris.  The work was finely printed on handmade paper in an edition of unknown size, in full buckram or quarter morocco bindings, and presented "With the Compliments of the Trustees and Family of the Late Dr. James Young of Kelly."

One of the earliest technical chemists, Young's discovery of the distillation of paraffin from coal and oil-shales made him the founder of the Scottish shale oil industry. In about 1850 Young set out to collect the classic original works in the history of alchemy, chemistry, and pharmacy, eventually aided in this pursuit by Ferguson. Along with Augustus de Morgan and Latimer Clark, whose libraries are also noticed in this database, Young was one of the earliest collectors of the history of science.

The Young collection numbered about 1400 separate items, many of which were already of the greatest rarity by the end of the nineteenth century. Ferguson's 2-volume catalogue of more than a thousand densely printed quarto pages, with bibliographical details of each work, biographical notices of each writer, and exhaustive lists of references in chronological order, set a new standard in scope and accuracy for the descriptive bibliography of the history of science. Sir William Osler considered Ferguson's catalogue the model of descriptive scientific bibliography, writing in his inimitable style:

"though an absorbing and profitable study, the results of bibliography are too often recorded in tomes of intolerable dullness. The merit that appeals to me [in Ferguson's Bibliotheca Chemica] is the combination of biography with bibliography. Beside the book is a picture of the man sketched by a sympathetic hand "

The Young collection is preserved in the Andersonian Library, University of Strathclyde, Glasgow.

Reginald A. Fessenden makes the first audio radio broadcast of entertainment and music to a general audience, broadcasting from Brant Rock on the coast of Massachusetts.

The program included Fessenden playing the song O Holy Night on the violin and reading a passage, Luke Chapter 2, from the Bible. The main audience for this transmission was an unknown number of shipboard radio operators along the Atlantic Coast. This is considered the beginning of amplitude modulation broadcasting, or AM radio.

Engineer Robert Goldschmidt and Paul Otlet publish "Sur une forme nouvelle du livre-- le livre microphotographique" in l'Institut international de bibliographie bulletin.

In this paper they "proposed the livre microphotographique as a way to alleviate the cost and space limitations imposed by the codex format. Otlet’s overarching goal was to create a World Center Library of Juridical, Social and Cultural Documentation, and he saw microfiche as way to offer a stable and durable format that was inexpensive, easy to use, easy to reproduce, and extremely compact." (Wikipedia article on Microform, accessed 04-26-2009). 

Using funds supplied by J. Pierpont Morgan, entrepeneur and photographer Edward S. Curtis begins publication and sale by subscription in Seattle, Washington, of The North American Indian, Being a Series of Volumes Picturing and Describing the Indians of the United States and Alaska.

The massive work was written and illustrated by Curtis, and edited by anthropologist Frederick Webb Hodge. Volume one contained an introduction by Theodore Roosevelt. The original publication project was intended to occur over five years.  Twenty-three years later the work was finally complete,  in 20 volumes of text and illustrations, and 20 large portfolios, including 723 leaves of photogravure reproductions of photographs.

"This publication follows the nineteenth-century Euro-American tradition of capturing the 'otherness' of indigenous American Indian life in photography and narrative chronicles. It is set apart by its ambitious scale, and by the striking effect of its images, which are essentially contrived reconstructions rather than true documentation.

"Originally planned for five years, the complicated project was slowed by prohibitive expenses. Public reception was mixed. Less than half of 500 projected sets were printed. Scholars, while interested in staff notes on vocabulary and lore, were dubious of Curtis’s methods of observation. In the 1970s the photographs began to enjoy a nostalgic revival in reprints, and have had a lasting, if controversial, influence on views of the American Indian" (http://curtis.library.northwestern.edu/curtis/aboutwork.html).

"The lavishly illustrated volumes were printed on the finest paper (Dutch etching stock or Japanese tissue paper) and bound in expensive leather, making the price prohibitive for all but the most avid collectors and libraries.

"Subscriptions started at $3000 on the Van Gelder paper in 1907; by 1924 the base price had risen to $4200.

"Although the plan was to sell 500 sets, it appears that Curtis secured just over 220 subscriptions over the course of the project, and printed less than 300 sets.

"In 1935 the assets of the project were liquidated, and the remaining materials were sold to the Charles Lauriat Company, a rare book dealer in Boston. Lauriat acquired nineteen unsold sets of The North American Indian, thousands of individual prints, sheets of unbound paper, and the handmade copper photogravure plates. The book dealer printed a sales brochure and sold nearly seventy more sets at the reduced price of $1245 each. The sets sold apparently included the nineteen remaining original sets plus additional ones made up from loose sheets and newly printed plates" (http://curtis.library.northwestern.edu/curtis/description.html).

Newspaper publisher E. W. Scripps combines three regional news services into the United Press Associations, the forerunner of UPI.

Percy Ludgate designs a new version of Babbage’s Analytical Engine, of which he publishes a brief description in 1909, and creates engineering drawings.

This would have been the first programmable computer since  Babbage's mid-19th century design. However, the machine was never constructed, and the drawings were lost. (See Reading 6.3.)

Swedish physical chemist Svante Arrhenius publishes Das Werden der Welten. In this work he was the first to predict the possibility of man-made global warming. His prediction that significant global warming would take ~3000 years to develop is now recognized as a substantial underestimate due in part to his failure to foresee the rapid increases in fossil fuel use during the twentieth century.

Historian of Mathematics David Eugene Smith publishes Rara arithmetica: A Catalogue of the Arithmetics Written Before the Year MDC! with a Description of Those in the Library of George Arthur Plimpton of New York. This two-volume work, issued by Plimpton's textbook publishing company, Ginn & Company., described and illustrated Plimpton's library of early mathematical books and medieval manuscripts before 1601.  Two versions of the catalogue were published:

1. A deluxe numbered edition limited to 151 copies printed on handmade paper and bound in full vellum, elaborately gilt, in two volumes, with the plates printed in color on Japan vellum, enclosed in a slipcase
2. A trade edition of indeterminate number, printed on regular paper and bound in one volume in cloth-backed boards. 
   

Plimpton’s mathematical library, preserved at Columbia University, is the first specialized private collection of antiquarian scientific books formed by an American for which we have an annotated bibliographical catalogue.  Smith also discussed some of Plimpton’s early manuscripts in his History of Mathematics (Boston: Ginn & Co., 1923–25), and issued a pamphlet addendum to his catalogue of Plimpton’s library in 1939 (Rara arithmetica: Addenda to “Rara arithmetica" [Boston: Ginn & Co.]).

Plimpton did not comment on his library in any of Smith’s works, all, or nearly all of which were published by Plimpton's Ginn & Company. The only place where I find published remarks by Plimpton on his mathematical library is in “The History of Elementary Mathematics in the Plimpton Library", Atti del Congresso Internazionale dei Matematici Bologna 3–10 Settembre 1928, VI (1932) 433–42.

In a letter written to the journal Nature, A.A. Campbell-Swinton describes his concept of electronic television using the cathode ray tube which had been invented in 1897 by the German physicist and Nobel Prize winner Karl Ferdinand Braun.

Swinton "proposed using an electron beam in both the camera and the receiver, which could be steered electronically to produce moving pictures. He lectured on the subject in 1911 and displayed circuit diagrams, but no one, including Swinton, knew how to realize the design. Although his system was never built, the cathode ray tube did come to be used to display images in almost all television sets and computer monitors until the invention of the LCD panel."

William D. Weaver publishes Catalogue of the Wheeler Gift of Books, Pamphlets, and Periodicals in the Library of the American Institute of Engineers. With Introduction, Descriptive and Critical Notes by Brother Potamian.

This 2-volume work described primarily the library of Latimer Clark, an electrical engineer and inventor who, in partnership with Sir Charles Tilson Bright, was responsible for laying many of the first submarine telegraphic cables. While pursuing a remarkably successful and creative scientific and entrepeneurial career, Clark also found time to build one of the most complete collections ever formed of early books and manuscripts on the history of electricity and magnetism, including virtually every known publication in English on these subjects prior to 1886.

In 1901 Clark's library was purchased by the American engineer, Schulyer Skaats Wheeler, and donated by him to the American Institute of Electrical Engineers in New York. The extensively annotated and illustrated catalogue of the collection of 5,966 items, edited by William Weaver and annotated by Brother Potamian, was financed by Andrew Carnegie. Though the title page of the catalogue takes no notice of it, a high percentage of the items in Clark's library, particularly the final 2000 items, concern telegraphy.

♦ Problematic Management of the Latimer Clark Library in the Twentieth Century:

"In 1913 the Engineering Societies Library was established in New York City, a joint venture of the AIEE, the ASME (Mechanical Engineers), and the AIME (Mining Engineers), funded by a $1.5 million gift from Andrew Carnegie. The AIEE’s main contribution to the Library was the Wheeler Gift Collection. For many years the collection was accessible according to the terms above, but in the 1990s the ESL decided that it could no longer maintain its Manhattan premises and closed the library there.

"By that time the Wheeler Gift Collection had been merged with other works at the library, and had suffered from neglect over the years, much of the material being kept in poor physical conditions. A 1985 survey of the collection showed about 9% (532 items) were missing, and it seems unlikely that the situation improved in the following ten years, prior to the dispersion of the collection.

"Constrained by the terms of the Gift to keep the collection in New York City, the ESL boxed up whatever could be definitely identified as part of the original Wheeler Gift and in 1995 sent 205 cartons of books and papers to the Humanities and Social Sciences division of the New York Public Library at 42nd Street. The rest of the collection, including items in the 1909 catalog that were part of the Wheeler Gift but did not have identifying labels, went to Linda Hall Library in Kansas City, MO"(http://atlantic-cable.com/CablePioneers/LatimerClark.htm, accessed 07-31-2009).

Hook & Norman, Origins of Cyberspace (2001) no. 211.

Edward Tyson Reichert and Amos Peaslee Brown  publish The Differentiation and Specificity of Corresponding Proteins and other Vital Substances in Relation to Biological Classification and Organic Evolution: The Crystallography of Hemoglobins. 

This massive work with 100 plates including 600 images, was the first large-scale investigation of species differences at the molecular level.

“In 1909 appeared an extraordinary volume, The Crystallography of Hemoglobins, by Edward Tyson Reichert, a physiologist at the University of Pennsylvania, and Amos Peaslee Brown, a mineralogist there. Reichert had conceived the ambition to plot the evolutionary relationships among species by the divergences among their protein molecules. His essential idea was merely seventy years ahead of the technology: only with the advent of Frederick Sanger’s methods for sequencing amino acids could students of evolution begin to measure the similarities among proteins, and only with Sanger’s means of sequencing nucleotides in DNA, beginning in 1976, could such measurements of genetic similarity begin to be accurate. But Reichert understood the enormous scope for diversity if proteins were large, specific molecules; he settled on crystal forms—and recruited his colleague Brown—as the means to get at degrees of difference, and on hemoglobin as the easily crystallized protein universal among animals. Their book surveyed the nineteenth-century literature of hemoglobin; catalogued crystals of the stuff from a hundred and nine different vertebrate species—Philadelphia had a good zoo—complete with drawings and measurements of the crystal forms; and ended with six hundred large, clear, well-printed photomicrographs of hemoglobin crystals” (Judson, The Eighth Day of Creation, p. 492).

“Physiologist Edward Reichert of the Carnegie Institution of Washington proposed in 1909 that if a definite relationship between differences in proteins and physiological differences between species could be demonstrated, then ‘a fundamental principle of the utmost importance would be established in the explanation of heredity, mutation, the influence of food and environment, the differentiation of sex, and other great problems of biology, normal and pathological.’ Reichert, together with Amos Brown, examined hemoglobin crystals from about two hundred mammalian species, establishing a taxonomy of hemoglobins that paralleled traditional organismic classification. Mammalian visible attributes were thus replaced by the properties hidden in their molecular structures. Specificity therefore served as a probe into evolutionary change . . .” (Kay, Who Wrote the Book of Life, pp. 43-44). 

E. M. Forster publishes a short story entitled The Machine Stops.

Describing a world in which people live beneath the surface of the earth, with technology running virtually all aspects of their lives, the story anticipated instant messaging and videoconferencing with a machine called "the speaking apparatus." It also anticipated television with a machine called the "cinematophote."

The only book that the main character in the story uses is an enormous technical manual about "the Machine."

Reacting to H. G. Wells's optimism about science and technology, and fearing that man might be unable to live without the all-encompassing technology that he created, or eventually might not even remember that the technology was man-made, Forster stressed the value of actual or direct experience versus "virtual" experience.