| OCTOBER 11 - BIRTHS | |
| Robert Gale | |
(source) |
Physician, co-founder of International Bone Marrow Registry, and a pioneer in bone marrow transplantation. Gale has received much attention for the assistance he has given foreign governments in treating radiation victims - to the Soviet Union (1986) after the Chernobyl disaster and to Brazil (1987) following an accident in Goiania. As a specialist in bone marrow transplants, he volunteeredto treat Chernobyl victims and was invited by Mikhail Gorbachev to travel with a group to Moscow immediately after the April 1986 accident. He operated with bone marrow transplants on 13 Chernobyl victims. However, many of the highly exposed Chernobyl survivors have since died from latent radiation effects. |
| Friedrich Bergius | |
(source) |
German chemist, who invented converting coal dust and hydrogen directly into gasoline and lubricating oils without isolating intermediate products, (Stuttgart, 25 June 1921). Bergius succeeded, during distillation of coal, in forcing hydrogen under high pressure to combine chemically with the coal, transforming more carbon from the coal into oils than is possible with conventional distillation. To solve heat distribution and temperature regulation problems, Bergius invented treating a mixture of pulverized coal in oil with the gas under high pressure. For his work in developing the chemical high pressure hydrogenation method necessary for this process he shared the 1931 Nobel Prize for Chemistry with Carl Bosch of Germany. |
| Lewis Fry Richardson | |
(source) |
British physicist and psychologist who first applied mathematics in weather prediction. In his life, he held various posts: at the National Physical Laboratory, the Meteorological Office, and several university posts in physics or technology. Also, he was a chemist with National Peat Industries and in charge of the physical and chemical laboratory of the Sunbeam Lamp Co. Richardson applied the mathematical method of finite differences to predicting the weather (1922). He wrote several books applying mathematics to the causes of war. He contributed to calculus and the theory of diffusion for eddy-diffusion in the atmosphere. The Richardson number, a quantity involving gradients of temperature and wind velocity, is named after him. |
| Harriet Ann Boyd Hawes | |
(source) |
American archaeologist and social activist who gained renown for her discoveries of ancient remains in Crete. She went to Crete in 1900, and with the encouragement of Arthur Evans, began to excavate a Minoan site at Kavousi where she discovered some Iron Age Tombs. From 1901-05 she led a large team that excavated the early Bronze Age Minoan town of Gournia, becoming the first woman to head a major archaeological dig. As a community of humble artisans, Gournia was of particular interest to archaeologists, complementing as it did the more elaborate palaces being unearthed at Knossos and elsewhere. In 1908 she published her monumental work on Gournia. During WW I she went to Corfu to help nurse the Serbians (1916). |
| Charles Atwood Kofoid | |
Early 1900's (source) |
American zoologist whose classification of many new species of marine protozoans helped establish systematic marine biology. Named director of the University of Illinois Biological Experiment Station in Havana, IL. (1895-1903), Kofoid investigated plankton in the river and backwater lakes. He joined the newly founded Scripps Institution of Oceanography (1903). Kofoid was a member of their scientific staff on the US Fish Commission Steamer Albatross during the Albatross Expedition (l904-5) off the coast of San Diego, CA. Two summers (1908,9), he toured the marine biological stations of Europe, buying instruments and collecting information on buildings and aquaria to help plan the San Diego Marine Biological Station. |
| James Gayley | |
(source) |
American metallurgist who invented a device to ensure uniform humidity in the air stream going into blast furnaces. With prior experience at several iron works, Gayley was hired by the Edgar Thomson Steel Works as Superintendent of the Blast Furnaces (1885). In this capacity was an economist, and made a record reduction in the coke consumption. He invented the bronze cooling plate for blast furnace walls, the auxiliary casting stand for Bessemer steel plants, and was the first to use the compound condensing blowing engine with the Blast Furnace. He also invented the dry-air blast, for which the Franklin Institute awarded him the Elliott Cresson medal. Gayley rose to first vice-president of the U.S.Steel Corp and acquired a large fortune. |
| Henry John Heinz | |
(source) |
Businessperson who founded H.J. Heinz Co.and invented the "57 varieties" slogan was a born salesman. His entrepreneur and business genius had roots in post-Civil War Pittsburgh, where iron, steel and glass factories were forging industrial America. By age 12 he was peddling produce from the family garden. At 25, in 1869, he and a friend launched Heinz & Noble. Its first product: Henry's mother's grated horseradish, bottled in clear glass to reveal its purity. Heinz & Noble thrived until an overabundance of crops in 1875 brought bankruptcy. But Henry plunged back in, eventually building a model factory complex along the Allegheny River. By 1896, at only 52, the pickle king had become a millionaire and celebrity. |
| Joseph Gillott | |
(source) |
A pioneer of the steel pen, born in Sheffield. An English engineer Bryan Donkin patented a steel pen point in 1803 but did not commercially exploit his patent. In 1830, steel makers (William Joseph Gillott, William Mitchell, James Stephen Perry) mainly in Birmingham, England developed the machine production technique for cheap long wearing steel pen nibs. Tempered steel sheet was stamped to produce the basic nib then shaped, slit and the tip formed. More than most other metals, stainless steel has the elasticity needed to give the variety of penmanship styles available from the quill pen. By 1850 quill pen usage was fading and the quality of the steel nibs had been improved by tipping them with hard alloys of iridium, rhodium and osmium. |
| Heinrich Olbers | |
(source) |
(Heinrich) Wilhelm (Matthäus) Olbers was a German astronomer and physician, born in Arbergen, Germany. While practising medicine at Bremen, he calculated the orbit of the comet of 1779, discovered the minor planets (asteroids) Pallas (1802) and Vesta (1807), and discovered five comets (all but one already observed at Paris). He also invented a method for calculating the velocity of falling stars. He is also known for Olber's paradox which asks "why is the night sky dark if there are so many bright stars all around to light it?" Image: Monument in Bremen, Germany. |
| Fausto D'Elhuyar | |
(source) |
![]() Spanish chemist and mineralogist who assisted his older brother Juan José in experiments to separate tungsten metal from its wolframite ore (1783). Two years earlier, Swedish chemist Carl Scheele discovered tungstic acid, though did not isolate the elemental form, from a mineral known since about 1758 as tung sten (Swedish, heavy stone; which is now known as scheelite). The Elhuyar brothers, working at the Seminary of Bergara, succeeded in extracting the metal by reducing tungstic acid with charcoal. For the first time, Basque scientists entered the history of science. Each became a directorof a school of mines, but in different countries. Although Juan José discovered tungsten metal, Fausto became better known.« [Image right: wolframite] |
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| OCTOBER 11 - DEATHS | |
| Franklyn Perring | |
c. 1950's |
English botanist and conservationist, who was was one of the most influential botanists of his generation. He made a significant contribution to conservation as the co-author (with Max Walters) of the Atlas of the British Flora (1962), one of the most important British natural history publications of the 20th century. This compilation precisely was initiated in 1954 by the Botanical Society of the British Isles (BSBI) to record the incidence of all British flowering plants. Perring was a senior member of the team of researchers. Using a map of the country in 10 km grid squares, each square was visited, and the plants there recorded. Later, he encouraged zoologists to make similar atlases of distribution for mammals, butterflies, and other life forms. |
| Vito Volterra | |
(source) |
Italian mathematician who made important contributions to calculus, and mathematical theories in astronomy, elasticity and biometrics. His mathematical talent appeared as a young boy. In 1905, he began to develop the theory of dislocations in crystals that led to improved understanding of the behaviour of ductile materials. During WWI he established the Italian Office of War Inventions and designed weapons for use by airships, for which he proposed the use of helium instead of flammable hydrogen. He is remembered for achievements in function theory and differential equations. In biology, in 1925, he formulated a pair of differential equations relating populations of prey and predators (also independently proposed by Alfred J. Lotka in 1925).« |
| Jean Henri Fabre | |
(source) |
French entomologist and author who popularized insect natural history. He wrote ten volumes of Souvenirs entomologiques (1879-1907) in which he recorded his perceptive field observations of insect behaviour. Although his career began as a professor of physics, and in 1866 he isolated alizarin (the colouring agent in madder), his life work became the study of insects, about which he wrote in elegant prose. From his study of parasitic wasps he deduced that much of the wasp's behaviour is inherited and not learned. Victor Hugo dubbed him "the insects’ Homer" and Edmond Rostand named him the "Virgil of insects." Darwin cited him as "an incomparable observer."« |
| James Prescott Joule | |
(source) |
English physicist, inventor, Joule's Law; who established that the various forms of energy - mechanical, electrical, and heat - are basically the same and can be changed, one into another. Thus he formed the basis of the law of conservation of energy, the first law of thermodynamics. Died at Sale, Cheshire. |
| Ferdinand Gotthold Max Eisenstein | |
(source) |
German mathematician whose work covered a range of topics including the theory of elliptic functions, and quadratic and cubic forms, which led to cyclotomy, the reciprocity theorem for cubic residues, and also theorems for quadratic and biquadratic residues from partition of prime numbers.« |
| Guillaume Amontons | |
(source) |
French physicist, who developed the air thermometer - which relies on increase in volume of a gas (rather than a liquid) with temperature - and used it (1702) to measure change in temperature in terms of a proportional change in pressure. This observation led to the concept of absolute zero in the19th century. Deaf since childhood, Amontons worked on inventions for the deaf, such as the first telegraph, which relied on a telescope, light, and several stations to transmit information over large distances. Amontons' laws of friction, relied upon by engineers for 300 years, state that the frictional force on a body sliding over a surface is proportional to the load that presses them together and is also independent of the areas of the surfaces. |
| OCTOBER 11 - EVENTS | |
| Ozone layer | |
(source) |
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| Magellan ends mission | |
| Telephone | |
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| Jodrell Bank | |
(source) |
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| Glass wool | |
(source) |
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| Edison patent | |
| Adding machine | |
(source) |
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| Camera roll film | |
(source) |
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| Steam ferryboat | |
(source) |
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