| 1856 |
1 |
Edward
Goodrich Acheson |
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Born
Mar 9 1856 - Died Jul 6 1931 |
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Production of Artificial
Crystalline Carbonaceous Materials and Carborundum |
Chem |
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Carborundum |
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| 1895 |
11 |
Edward
Acheson's discovery of carborundum, a highly effective abrasive used in
manufacturing, was an important influence in advancing the industrial era. In
the mid 1890s, Acheson discovered that overheating carborundum produced
almost pure graphite. This graphite was another major discovery for him, and
it became extremely valuable and helpful as a lubricant. |
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15 |
In
1926, the U.S. Patent Office named carborundum as one of the 22 patents most
responsible for the industrial age. Not long after that, it was noted that
without carborundum, the mass production manufacturing of precision-ground,
interchangeable metal parts would be practically impossible. |
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19 |
Born
in Washington, Pennsylvania, Acheson worked with Thomas Edison before
establishing his own lab. There, he began experimenting in search of a good
industrial abrasive. When he tried intensively heating a mixture of carbon
and clay, he found that the mixture yielded silicon carbide, or carborundum.
Acheson was key in successfully establishing at least five industrial
corporations dependent on electrothermal processes. He received a total of 70
patents relating to abrasives, graphite products, reduction of oxides, and
refractories. |
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| 1878 |
21 |
Ernst F. W. Alexanderson |
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Born Jan 25 1878 - Died May 14 1975 |
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High-Frequency Alternator |
Telcom |
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Radio |
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| 1906 |
31 |
Inventor
Ernst Alexanderson was the General Electric Company engineer whose
high-frequency alternator gave America its start in the field of radio
communication. In 1904, Alexanderson was assigned to build a high-frequency
machine that would operate at high speeds and produce a continuous-wave
commission. |
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35 |
Beforethe
invention of his alternator, radio was an affair only of dots and dashes
transmitted by inefficient crashing spark machines. After two years of
experimentation, Alexanderson finally constructed a two-kilowatt,
100,000-cycle machine. It was installed in the Fessenden station at Brant
Rock, Massachusetts, on Christmas Eve, 1906. It enabled that station to
transmit a radio broadcast which included a voice and a violin solo. |
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39 |
During his 46-year
career with G.E., Swedish-born Alexanderson became the company's most
prolific inventor, receiving a total of 322 patents. He produced inventions
in such fields as railway electrification, motors and power transmissions,
telephone relays, and electric ship propulsion, in addition to his pioneer
work in radio and television. Alexanderson's name also will be recorded in
history for his pioneer efforts in television and the transmission of
pictures. On June 5, 1924, he transmitted the first facsimile message across
the Atlantic. In 1927 he staged the first home reception of television at his
own home in Schenectady, New York, using high-frequency neon lamps and a
perforated scanning disc. He gave the first public demonstration of television
on January 13, 1928. |
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| 1904 |
41 |
Andrew Alford |
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Born Aug 5 1904 - Died Jan 25 1992 |
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Localizer Antenna System |
Telcom |
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Localizer Antenna System |
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| 1945 |
51 |
Andrew
Alford invented and developed antennas for radio navigation systems,
including VOR and instrument landing systems featuring the 'Alford
Loop.' |
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59 |
Born
in Samara, Russia, Alford graduated from the University of California in 1924
with an A.B. and received the honorary title of D.S. from Ohio University in
1975. He was employed with the Harvard University Radio Research Lab from
1943 to 1945; was division head,Direction Finder and Antenna Division, ITT,
from 1943 to 1945; was head, Air Navigation Lab, International Telegraph
Development Corporation, 1938-41; was with Mackay Radio and Telegraph
Company, 1934-41; did engineering work for Fox Film Corporation, 1929-31; and
was on the sound lab staff at California Institute of Technology, 1927-28. He
later founded the Alford Manufacturing Company. |
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| 1911 |
61 |
Luis Walter Alvarez |
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Born Jun 13 1911 - Died Sep 1 1988 |
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Radio Distance and Direction Indicator |
Telcom |
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Radio Distance and
Direction Indicator |
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| 1943 |
71 |
Luis
Walter Alvarez invented a radio distance and direction indicator. During
World War II, he designed a landing system for aircrafts and a radar system
for locating planes. Later, he helped develop the hydrogen bubble chamber,
used to detect subatomic particles. |
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75 |
This
research led to the discovery of over 70 elementary particles and resulted in
a major revision of nuclear theories. |
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79 |
Born in San Francisco,
Alvarez graduated from the University of Chicago with a B.S. in 1932 and a
Ph.D. (physics) in 1936. He was an assistant physics instructor from 1936 to
1938; an associate professor from 1938 to 1945; associate director of the
Lawrence Berkeley Laboratory from 1954 to 1959; and a professor of physics at
the University of California, Berkeley, in 1945. He was a staff member, in
the radiation laboratory, at the Massachusetts Institute of Technology from
1940 to 1943; at the metal laboratory at the University of Chicago from 1943
to 1944, and at the Los Alamos Laboratory in New Mexico from 1944 to 1945, at
which time he received the patent for the radio distance and direction
indicator. Alvarez was a member of the President's Science Advisory Committee
from 1971 to 1972. He was awarded the Nobel Prize in Physics in 1968. |
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| 1890 |
81 |
Edwin Howard Armstrong |
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Born Dec 18 1890 - Died Feb 1 1954 |
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Method of Receiving High-Frequency Oscillations |
Telcom |
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Radio |
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| 1933 |
91 |
His
crowning achievement (1933) was the invention of wide-band frequency
modulation, now known as FM radio. |
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95 |
The
inventions of engineer Edwin Howard Armstrong were so important that to this
day every radio or television set makes use of one or more of his
developments. |
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99 |
Born in New York City,
Armstrong earned a degree in electrical engineering from Columbia University
in 1913. While in college, he invented the regenerative circuit, which was
the first amplifying receiver and the first reliable continuous-wave
transmitter. In 1918, he invented the superheterodyne circuit, a highly
selective means of receiving, converting, and greatly amplifying very weak,
high-frequency electromagnetic waves. Independently wealthy on royalties from
his inventions, he neither drew a salary nor taught many classes as professor
of electrical engineering of Columbia University. |
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| 1832 |
101 |
George Babcock |
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Born Jun 17 1832 - Died Dec 16 1893 |
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Improvement in Steam Generators |
Energy |
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Steam Generator |
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| 1867 |
115 |
George
H. Babcock and Stephen Wilcox invented an improved water tube steamboiler,
which provided a safer and more efficient production of steam. |
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119 |
Born in Unadilla Forks,
New York, Babcock was part of a family of inventors and mechanics. In 1860,
after moving to Brooklyn, he attended evening classes at Cooper Institute.
During the American Civil War, he worked for the Mystic (Connecticut) Iron
Works building ships for the U.S. government. He became the chief draftsman
at the Hope Iron Works in Providence, R.I., where he joined Stephen Wilcox in
improving boiler designs. The two men received their patent in 1867 and
formed a partnership that same year. In 1881, the company was incorporated
with Babcock as president and Wilcox as vice president. Since then, Babcock
& Wilcox has become a world leader in the power generation industry and
is a major operating unit of McDermott International, a worldwide energy
services company. |
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| 1863 |
121 |
Leo Hendrik Baekeland |
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Born Nov 14 1863 - Died Feb 23 1944 |
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Method of Making Insoluble Products of Phenol and Formaldehyde |
Chem |
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Bakelite |
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| 1907 |
131 |
Leo
Hendrik Baekeland is cited for his research in electric insulation, synthetic
resins, and plastics. Using money from his first invention, Velox
photographic paper, he established a laboratory, where he synthesized
'Bakelite,' a nonflammable material that was cheaper and more versatile than
other known plastics. |
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135 |
Bakelite
has since been used in everything from engine parts to jewelry to
electronics. |
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139 |
Born in Ghent, Belgium,
Baekeland graduated with a B.S. in chemistry from the University of Ghent in
1882 and a doctoral degree in 1884. He was awarded honorary degrees from
theUniversity of Pittsburgh and the University of Edinburgh. Baekeland was a
professor of chemistry at the University of Ghent from 1882 to 1889 and was a
professor of chemistry and physics at the Government Higher Normal School of
Science, Bruges, Belgium, from 1885 to 1887. In 1893 he founded Nepera
Chemical Company, which he operated until 1899. He was president of the
Bakelite Corp. from 1910 to 1939. Baekeland was a member of the U.S. Naval
Consulting Board and the U.S. Nitrate Supply Commission, chairman of the
committee on patents of the National Research Council, trustee of the
Institute of International Education, and a member of the advisory board of
the Chemical Division of the U.S. Department of Commerce. |
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| 1921 |
142 |
Robert Banks |
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Born Nov 24 1921 - Died Jan 3 1989 |
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Polymers and Production Thereof |
Chem |
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HDPE and Polypropylene
Plastics |
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| 1951 |
152 |
Robert
Banks and fellow research chemist Paul Hogan were working for Phillips
Petroleum in 1951 when they invented crystalline polypropylene and
high-density polyethylene (HDPE). Together, the plastics were marketed under
the brand name Marlex®, which has since made its way into every corner of
American life. Banks and Hogan began working together in 1946. Low-density
polyethylene already existed, but manufacturing it required extremely high
pressures. While working on another project to improve yields of high-octane
gasoline--the two chemists discovered crystalline polypropylene. They
experimented further and found they were able to produce HDPE in a low
pressure situation. Their discoveries launched a multi-billion dollar
industry. |
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156 |
Today,
over 55 billion pounds of HDPE are manufactured each year. Plastic products
include gallon milk jugs, laundry baskets, indoor-outdoor carpeting, and
artificial turf. |
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160 |
Banks
was born and raised in Piedmont, Missouri. He received his B.S. from the
University of Missouri at Rolla and his M.S. from Oklahoma State University.
During World War II, he was a process engineer at an aviation gasoline plant.
In 1946 Banks joined Phillips, spending his career there until his 1985
retirement. In 1987, Banks received an honorary doctorate from the University
of Missouri at Rolla. |
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| 1908 |
163 |
John Bardeen |
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Born May 23 1908 - Died Jan 30 1991 |
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Semiconductor Amplifier; Three-Electrode Circuit Element Utilizing Semiconductive Materials |
Chem |
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Transistor |
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| 1910 |
164 |
William B. Shockley |
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Born
Feb 13 1910 - Died Aug 12 1989 |
Semiconductor Amplifier; Three-Electrode Circuit Element Utilizing Semiconductive Materials |
Chem |
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Transistor |
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| 1902 |
165 |
Walter Brattain |
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Born
Feb 10 1902 - Died Oct 13 1987 |
Semiconductor Amplifier; Three-Electrode Circuit Element Utilizing Semiconductive Materials |
Chem |
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Transistor |
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| 1947 |
173 |
Physicists
John Bardeen, William B. Shockley, and Walter Brattain shared the 1956 Nobel
Prize for jointly inventing the transistor, a solid-state device that could
amplify electrical current. |
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177 |
The
transistor performed electronic functions similar to the vacuum tube in radio
and television, but was far smaller and used much less energy. The transistor
became the building block for all modern electronics and the foundation for
microchip and computer technology. |
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181 |
Born in Madison,
Wisconsin, Bardeen obtained his Ph.D. in 1936 in mathematics and physics from
Princeton University. A staff member of the University of Minnesota,
Minneapolis, from 1938 to 1941, he served as principal physicist at the U.S.
Naval Ordinance Laboratory in Washington, D.C., during World War II, after
which he joined Bell Telephone Laboratories, Inc. There he conducted research
on the electron-conducting properties of semiconductors. This work led to the
invention of the transistor. Bardeen is also responsible for a theory of
superconductivity, the property of some metals to lose all electrical
resistance at very low temperatures, and for a theory explaining certain
properties of semiconductors. In 1977, Bardeen received the Presidential Medal
of Freedom, the highest honor awarded to a civilian. |
|
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183 |
Shockley was born in
London. He joined the technical staff of the Bell Telephone Laboratories in
1936 and there began experiments that led to the invention and development of
the junction transistor. During World War II, he served as director of
research for the Antisubmarine Warfare Operations Research Group of the U.S.
Navy. After the war, he returned to Bell Telephone as director of transistor
physics research. He was visiting professor of physics at the California
Institute of Technology, Pasadena, in 1954, and deputy director of the
Weapons Systems Evaluation Group of the Department of Defense in 1954-55. He
joined Beckman Instruments Inc., to establish the Shockley Semiconductor
Laboratory in 1955. In 1958 he became lecturer at Stanford University,
California, and in 1963 became the first Poniatoff professor of engineering
science at Stanford University. |
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185 |
Brattain
was born in Amoy, China. Upon receiving his doctorate in 1929, he became a
research physicist for Bell Telephone Laboratories. His chief field of
research involved investigations into the surface properties of solids,
particularly the atomic structure of a material at the surface, which usually
differs from its atomic structure in the interior. He became adjunct
professor at Whitman College, Walla Walla, Washington, in 1967. He was
granted a number of patents and wrote extensively on solid state
physics. |
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| 1900 |
187 |
Arnold O. Beckman |
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Born Apr
10 1900 |
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Apparatus for Testing Acidity |
Elec |
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pH Meter |
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| 1935 |
197 |
Arnold
O. Beckman invented a pH meter for measuring acidity and alkalinity and the
quartz spectrophotometer, an instrument which pioneered automatic chemical
analysis. |
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205 |
Born in Cullom,
Illinois, Beckman received his B.S. in 1922 and M.S. in 1923 from the
University of Illinois. After serving as Research Engineer for the Bell
Telephone Laboratories in New York for two years, he pursued further graduate
studies at the California Institute of Technology and received his Ph.D. in
1928. He became an assistant professor there in 1929, resigning in 1940 to
devote all of his time to the development and manufacture of scientific
instruments for use in chemical laboratories and in chemical process control.
He founded Beckman Instruments Inc. in 1935 with the development of the first
Beckman instrument, the pH meter. In 1940 he developed the helical
potentiometer, another precision electronic component, and the quartz
spectrophotometer. Today the Beckman Instrument Company is a leading
manufacturer of instrumentation and related scientific products used widely
in medicine, science, industry, environmental pollution control, education,
space exploration, and many other fields. Beckman has received numerous
honorary degrees and awards. He founded the Instrument Society of America.
The Arnold and Mabel Beckman Foundation has contributed substantially to the
advancement of education and research. The foundation's philanthropy is reflected
in the many medical and scientific institutions that bear the Beckman
name. |
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| 1905 |
207 |
S. Joseph Begun |
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Born Dec 2 1905 - Died Jan 5 1995 |
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Electromagnetic Talking Device; Electromagnetic Talking Machine |
Elec |
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Magnetic Recording |
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| 1934 |
217 |
Semi
Joseph Begun was a pioneer of magnetic recording. He developed the Sound
Mirror, the first consumer tape recorder, the Mail-A-Voice, which
magnetically recorded on one side of a paper disk for letter correspondence,
and a sourcing agreement for magnetic tape with 3M that turned into a billion
dollar product line. |
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221 |
One
application was the Black Box aircraft recorder used to investigate aircraft
accidents. |
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225 |
Begun was born in
Danzig, Germany. He graduated in 1929 from the Institute of Technology in
Berlin. There, he became interested in magnetic recording. His doctoral
thesis and his book were firsts in this field, both entitled Magnetic
Recording. In 1934, he built the first tape recorder for broadcasting. |
|
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227 |
Begun immigrated to the
U.S. in 1935. He joined the Brush Development Co. of Cleveland in 1938.
During World War II, as a member of the National Defense Research Committee
(NDRC), he promoted the development of magnetic recording. After the war,
Begun continued developing recording media, coating paper and plastic tape
with ferromagnetic powders. In 1971, Begun founded Auctor Associates, a
technology-oriented consulting firm. His many honors include the Presidential
Certificate of Merit from President Truman for his work in NDRC. |
|
| 1847 |
229 |
Alexander Graham Bell |
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Born Mar 3 1847 - Died Aug 2 1922 |
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Telephone / Telegraphy |
Telcom |
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Telephone / Telegraphy |
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| 1876 |
239 |
Alexander
Graham Bell's invention of the telephone grew out of his research into ways
to improve the telegraph. On April 6, 1875, Bell was granted the patent for
the multiple telegraph, which sent two signals at the same time. In September
1875 he began to write the specifications for the telephone. On March 7,
1876, the U.S. Patent Office granted him Patent Number 174,465 covering, the
method of, and apparatus for, transmitting vocal or other sounds
telegraphically by causing electrical undulations, similar in form to the
vibrations of the air accompanying the said vocal or other sounds. |
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243 |
The
range of Bell's inventive genius is represented only in part by the 18
patents granted in his name alone and the 12 he shared with his
collaborators. These included 14 for the telephone and telegraph, four for
the photophone, one for the phonograph, five for aerial vehicles, four for
hydroairplanes, and two for a selenium cell. |
|
|
247 |
Born in Edinburgh,
Scotland, the inventor spent one year at a private school, two years at
Edinburgh's Royal High School (from which he graduated at 14), and attended a
few lectures at Edinburgh University and at University College in London, but
he was largely family-trained and self-taught. Never adept with his hands,
Bell had the good fortune to discover and inspire Thomas Watson, a young
repair mechanic and model maker, who assisted him enthusiastically in
devising an apparatus for transmitting sound by electricity. After inventing
the telephone, Bell continued his experiments in communication, which
culminated in the invention of the photophone-transmission of sound on a beam
of light- a precursor of today's optical fiber systems. He also worked in
medical research and invented techniques for teaching speech to the deaf. In
1888 he founded the National Geographic Society. |
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| 1903 |
249 |
Willard H. Bennett |
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Born Jun 13 1903 - Died Sep 28 1987 |
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Radio Frequency Mass Spectrometer |
Telcom |
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Radio Frequency Mass
Spectrometer |
|
| 1950 |
259 |
Willard
Harrison Bennett pioneered the field of plasma physics and invented the radio
frequency mass spectrometer. Bennett made scientific history in the 1930s
pioneering studies in plasma physics - the study of gases ionized by
high-voltage electricity. The radio frequency mass spectrometer was developed
in 1950. Since it required no heavy magnet, it was the first launched into
space to measure the masses of atoms. |
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263 |
These
studies and later research have been used throughout the world in controlled
thermonuclear fusion research. In the 1950s, Bennett's experimental tube
called the Stormertron predicted and modeled the Van Allen radiation belts
surrounding the earth six years before they were discovered by satellite. It
also reproduced intricate impact patterns found on the earth's surface which
explained many features of the polar aurora. Sputnik III carried the first
R-F mass spectrometer into space. It was the only space instrument used by
the Russians and credited to an American inventor in their own
Russian-language publications. |
|
|
267 |
Born
in Findlay, Ohio, Bennett attended Carnegie Institute of Technology from
1920-22 and Ohio State University; the University of Wisconsin, Sc.M. in
physical chemistry, 1926; and the University of Michigan, Ph.D. in physics,
1928. Bennett was elected to a National Research Fellowship in Physics and in
1928 and 1929 studied at the California Institute of Technology. In 1930 he
joined the Physics faculty at Ohio State. Following service in World War II,
Bennett worked at the National Bureau of Standards, the University of
Arkansas, and the U.S. Naval Research Laboratory. In 1961, he was appointed
Burlington Professor of Physics at North Carolina State University (emeritus
in 1976). Bennett held 67 patents. |
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| 1851 |
269 |
Emile Berliner |
|
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Born May 20 1851 - Died Aug 3 1929 |
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Gramophone; Combined Telegraph and Telephone |
Elec |
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Gramophone / Microphone |
|
| 1876 |
279 |
Emile
Berliner invented the microphone that became part of the first Bell
telephones, and his gramophone was the first record player to use disks. The
carbon microphone transmitter he developed varied the contact pressure
between two terminals as a voice acted against it. |
|
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283 |
The
25 year-old Berliner sold his microphone patent for $50,000 to the fledgling
Bell Telephone Company paving the way for it to become one of the world's
largest corporations. Berliner's gramophone differed from its contemporaries
in that it used a flat disk to record sound rather than the cylinder proposed
by Edison. The disk permitted inexpensive, mass duplication. |
|
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287 |
Born in Hanover,
Germany, Berliner came to Washington in 1870 at age 19. He studied physics
part time at the Cooper Institute (now Cooper Union) while assisting in a
chemical laboratory. Most of the time he functioned as a seller of consumer
dry goods. When Bell demonstrated his telephone at the U.S. Centennial
Exposition, many inventors began exploring ways to improve it. Berliner's
inspiration came when a telegraph operator told him that more current passed
as one pressed harder on the key. Berliner's gramophone and method for
duplicating records were eventually acquired by the Victor Talking Machine
Company (eventually RCA). Berliner founded Deutsche Grammophon and Britain's
Gramophone Co., Ltd. to market his device in Europe. His trademark, later adopted
by RCA, was taken from an amusing painting from the turn of the century. The
painting showed a dog, Nipper, listening to "his master's voice" on
an old phonograph. Other Berliner inventions include a helicopter which flew
in 1919. In 1908 he commissioned what was likely the first radial aircraft
engine. He formed a public health organization that helped safeguard the U.S.
milk supply. In 1911 he established the Esther Berliner (his mother)
fellowship to give qualified women the opportunity to continue scientific
research. |
|
| 1947 |
289 |
Gerd Karl Binnig |
|
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Born Jul
20 1947 |
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Scanning Tunneling Microscope |
Tool |
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Scanning Tunneling
Microscope |
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| 1981 |
299 |
Since
the invention of the first microscope, scientists have searched for improved
ways to explore the microscopic world. Optical systems were limited by the
wavelength of light (roughly 2,000 times the diameter of an atom). Later,
electron microscopes achieved much higher resolution by taking advantage of
the much shorter wavelength of electrons in forming images. The most recent
revolution came with Heinrich Rohrer and Gerd Karl Binnig's scanning
tunneling microscope (STM), invented in 1981, which provided the first images
of individual atoms on the surfaces of materials. |
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303 |
The
STM can image atomic details as tiny as 1/25th the diameter of a typical
atom, which corresponds to a resolution several orders of magnitude better
than the best electron microscope. The STM's significance was quickly
recognized throughout the world, and it has been used in fields as diverse as
semiconductor science, metallurgy, electrochemistry, and molecular biology.
Only five years after Binnig and Rohrer built the first STM, they were
awarded the Nobel Prize for Physics. The Nobel committee said the invention
opened up 'entirely new fields...for the study of the structure of
matter.' |
|
|
307 |
Binnig and Rohrer began
their STM work at the IBM Zurich Division's Research Laboratory in 1978.
Binnig, born in Frankfurt, West Germany, had just completed his Ph.D. at the
Johann Wolfgang Goethe University of Frankfurt, where he studied
superconductivity. Rohrer, born in Buchs, Switzerland, received his degree at
the Eidenossiche Technische Hockschule in 1960 and had been with IBM since
1963. |
|
| 1921 |
309 |
Forrest M. Bird |
|
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Born Jun 9
1921 |
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Fluid Control Device; Respirator; Pediatric Ventilator |
Med |
|
Respirator / Ventilator |
|
|
319 |
On
television every week in the 1960s, Dr. Kildare committed himself to making
his patients better. But try as he might, some would still not respond to his
treatment. At those times his hospital's slogan was, when all else fails,
'get the Bird.' 'The Bird' was a little green box which became familiar to
hospital patients throughout the world after it was introduced in 1958. |
|
| 1970 |
323 |
It
was the first highly reliable, low-cost, mass-produced medical respirator in
the world, and it was invented by Forrest Bird. The 'Babybird' respirator,
introduced in 1970, quickly reduced infant mortality for those with
respiratory problems from 70 percent to less than 10 percent worldwide. |
|
|
327 |
Bird was born in
Stoughton, Massachusetts. His father, a World War I pilot, encouraged him to
solo in an airplane by age 14, and by 16 Forrest had been tutored toward
earning major flight authorizations. |
|
|
329 |
During World War II, as
an officer with the Army Air Corps, Bird became a technical air training
officer, which allowed him to learn to fly almost every airplane then
available. At that time supercharged airplanes were beginning to exceed the
altitudes at which pilots could breath unaided. This provided Bird his first
chance at developing technology for aiding breathing. After an Air Corps
physician presented him textbooks on mammalian pathophysiology he became a
lifelong student of the subject. By 1955, after having attended numerous
medical schools and completed diverse residencies, Bird developed the
prototype Bird Universal Medical Respirator for acute or chronic
cardiopulmonary care. He tested the device by traveling in his own airplanes
to medical schools and asking doctors for their most ill patients. In each
case, known therapies had failed and the patient was expected to die of
cardiopulmonary failure. Although many times the Bird succeeded, some
patients died. These cases only pointed the way for further improvements in
the device. |
|
| 1898 |
331 |
Harold Stephen Black |
|
|
Born Apr 14 1898 - Died Dec 11 1983 |
|
|
Wave Translation System |
Telcom |
|
Negative Feedback
Amplifier |
|
| 1927 |
341 |
Research
engineer Harold S. Black revolutionized telecommunications by inventing
systems that eliminated feedback distortion in telephone calls. The major
task confronting the lab at that time was elimination of distortion. After
six years of persistence, Black conceived the principles and equations for
his negative feedback amplifier in a flash commuting to work aboard the
ferry. Basically, the concept involved feeding systems output back to the
input as a method of system control. |
|
|
345 |
Negative
feedback had wider applications than transcontinental and transAtlantic
telecommunications, including industrial, military, and consumer electronics,
weaponry, analog computers, and such biomechanical devices as pacemakers. |
|
|
349 |
Born
in Leominster, Massachusetts, Black graduated from Worcester Polytechnic
Institute in 1921; years later he received an honorary doctorate in
engineering from Worcester Tech. Following graduation Black joined Western
Electric's West Street Labs, the forerunner of Bell Telephone Laboratories,
in New York City. Black worked on a negative feedback system to aid the blind
and deaf from 1966 until his death. |
|
| 1925 |
351 |
Baruch S. Blumberg |
|
|
Born Jul
28 1925 |
|
|
Vaccine Against Viral Hepatitis and Process; Process of Viral Diagnosis and Reagent |
Med |
|
Vaccine for Hepatitis B |
|
| 1963 |
361 |
Baruch
Blumberg discovered an antigen in 1963 that detected the presence of
hepatitis B in blood samples. Hepatitis B is a potentially fatal disease
often transmitted through blood transfusions. This hepatitis antigen, 'the
Australia Antigen,' was found frequently in the blood serum of viral
hepatitis sufferers. The antigen was named for an aborigine blood sample that
reacted with an antibody in the serum of an American hemophilia patient.
Working with Blumberg, microbiologist Irving Millman developed a test that
identified hepatitis B in blood samples. The blood test screened out carriers
of this infectious disease, and after blood banks began using the test in
1971, hepatitis B after blood transfusions decreased by 25 percent. |
|
|
365 |
The
test also became the first method for screening blood donations for the
hepatitis B virus. Together, Blumberg and Millman developed a vaccine against
the virus. This vaccine protects people exposed to hepatitis B from infection
and has been administered to millions, particularly in Asia and Africa. Since
hepatitis B is an unknown factor associated with the development of liver
cancer, the vaccine was the first against a major form of cancer. |
|
|
369 |
Born in New York City,
Baruch Blumberg graduated from Far Rockaway High School then joined the Navy,
which assigned him to study physics at Union College in Schenectady, New York
(B.S. 1946). He has an M.D., 1951, from Columbia University, and a Ph.D. in
biochemistry, 1957, from Balliol College at Oxford University. He worked at
the National Institutes of Health from 1957 to 1964 then joined Fox Chase
Cancer Center and was also appointed professor of medicine and anthropology
at the University of Pennsylvania. Blumberg shared the Nobel Prize in
Medicine and Physiology in 1976. In 1989, he became Master of Balliol College
at Oxford while maintaining a position at Fox Chase Cancer Center. Irving
Millman was born in New York City. He received a B.S. in 1948 from City
College in New York, an M.S. in 1951 from the University of Kentucky, and a
Ph.D. in 1954 from the Northwestern University Medical School, where he was
appointed assistant professor. He joined Fox in 1967 after having previously
held positions with Armour & Company, the Public Health Research
Institute of the City of New York Inc., and the Merck Institute for
Therapeutic Research. He is an adjunct professor of biology at Hahnemann
University in Philadelphia. He has been a member of the New York Academy of
Sciences, the American Association for the Advancement of Science, and the
American Society of Microbiology and is a fellow of the American Academy of
Microbiology. |
|
| 1936 |
372 |
Robert Bower |
|
|
Born Jun
12 1936 |
|
|
Field-Effect Device with Insulated Gate; Self Aligned Gate MOSFET |
Elec |
|
Field-Effect Device with
Insulated Gate; Self Aligned Gate MOSFET |
|
| 1969 |
382 |
Robert
Bower invented the Field-effect Device with Insulated Gate known as the
Self-Aligned Gate MOSFET, which has created the fast, design-stable device
that is the foundation of all modern integrated circuits. |
|
|
390 |
Born in Santa Monica,
California, Bower joined the Air Force in 1954. He attended UC Berkeley after
his service, and in 1962 earned an A.B. in Physics while working at the
Lawrence Radiation Laboratory. |
|
|
392 |
His work led to a Hughes
Fellowship and entry to the California Institute of Technology, where in 1963
he earned an M.S. in Electrical Engineering. In 1965 he joined Hughes
Research, where he conceived ways of using ion engine technology in the
semiconductor field. While at Hughes, he developed the concept of the
Self-Aligned Gate Transistor using ion implantation to form the Source and
Drain with the gate element as the self-aligned mask. |
|
|
394 |
He
returned to Cal Tech to work on his Ph.D. in Applied Physics in 1973. He was
a founder of Mnemonics, a company developing his invention of high density
CCDs (Charge Coupled Devices) for memory applications in 1975. In 1979 he
joined Advanced Micro Devices as a senior scientist and in 1986, he became an
IEEE Fellow. Recently, he has pioneered work on three-dimensional
microelectronics. |
|
| 1936 |
395 |
Herb Boyer |
|
Born Jul 10 1936 |
Process for Producing Biologically Functional Molecular Chimeras |
Med |
|
Genetic Engineering |
|
| 1973 |
396 |
Herb
Boyer was with the University of California, San Francisco when he began
investigating DNA with Stan Cohen. Their experiments marked the beginning of
genetic engineering and launched the multi-billion dollar biotechnology
industry. By early 1973, Boyer and Cohen determined that they were able to
add genes from an organism to a simple cell; the genes would then replicate
in the cell. Their recombinant DNA patents generated over $250 million in
royalties before expiring. Recombinant DNA technology is considered the most
significant achievement in molecular biology since Watson & Crick's work
in 1953. After working with Cohen, Boyer joined forces with venture
capitalist Robert Swanson to create the biotechnology firm Genentech, Inc.
Since its founding in 1976, Genentech has produced a number of firsts such as
genetically engineered human insulin. Genetically altered crops are also
being researched to deal with global food supply issues. |
|
|
404 |
Boyer was born in
Pittsburgh, grew up in western Pennsylvania, and attended St. Vincent College
in Latrobe. He completed graduate work at the University of Pittsburgh and
post-graduate work at Yale. In 1966, he joined the University of California,
San Francisco, staying until 1991. Boyer has been honored with many awards,
including the National Medal of Science and the National Medal of Technology. |
|
| 1898 |
406 |
Rachel Fuller Brown |
|
|
Born Nov 23 1898 - Died Jan 14 1980 |
|
|
Nystatin and Method of Producing It |
Med |
|
Nystatin (Antifungal /
Antibiotic) |
|
| 1954 |
416 |
Rachel Fuller Brown
developed the world's first useful antifungal antibiotic, nystatin, through a
long-distance scientific collaboration. |
|
|
418 |
Working as researchers
for the New York State Department of Health, Elizabeth Lee Hazen in New York
City and Rachel Fuller Brown in Albany shared tests and samples through the
U.S. mail. To Hazen's single-minded pursuit of an antifungal antibiotic,
Brown added the skills needed to identify, characterize, and purify the
various substances produced by culturing bacteria found in hundreds of soil
samples. |
|
|
420 |
The
antibiotic they developed, named 'nystatin' for the New York State Department
of Health, was first introduced in practical form in 1954 following Food and
Drug Administration approval. |
|
|
424 |
Not only did it cure
many disfiguring and disabling fungal infections of the skin, mouth, throat,
and intestinal tract, but it could be combined with antibacterial drugs to
balance their effects. |
|
|
426 |
Uses
for nystatin have been as varied as treating Dutch elm disease to rescuing
water-damaged works of art from molds. |
|
|
430 |
Brown and Hazen donated
all nystatin royalties-more than $13 million by the time the patent
expired-to academic science through the nonprofit Research Corporation. |
|
|
432 |
Born in rural
Mississippi, Hazen was orphaned at the age of three and raised by relatives.
She earned a B.S. at the Mississippi State College for Women then taught
school and served as an Army diagnostic laboratory technician during World
War I. After the war she won an advanced degree in bacteriology from Columbia
University, becoming one of its first women doctoral candidates. |
|
|
434 |
Brown was born in
Springfield, Massachusetts. She received her undergraduate education at Mount
Holyoke College and later earned M.A. and Ph.D. degrees in chemistry from the
University of Chicago. She became a pioneer in encouraging women to study
science. |
|
| 1849 |
436 |
Luther Burbank |
|
|
Born Mar 7 1849 - Died Apr 11 1926 |
|
|
Peach and Fruit |
Ag |
|
Peach and Fruit |
|
| 1871 |
446 |
During
a lifetime devoted to plant breeding, Luther Burbank developed more than 800
strains and varieties of plants, including 113 varieties of plums and prunes,
10 varieties of berries, 50 varieties of lilies and the Freestone peach. |
|
|
454 |
Born in Lancaster,
Massachusetts, Burbank was brought up on a farm and received only an
elementary education. At age 21 he purchased a 17-acre tract near Lunenberg,
Massachusetts, and began a 55-year plant breeding career. |
|
|
456 |
In 1871 he developed the
Burbank potato, which was introduced in Ireland to help combat the blight
epidemic. He sold the rights to the Burbank potato for $150, which he used to
travel to Santa Rosa, California. In Santa Rosa, he established a nursery garden,
greenhouse, and experimental farms that have become famous throughout the
world. |
|
|
458 |
He worked by effecting
multiple crosses of foreign and native strains to obtain seedlings, which he
grafted onto fully developed plants for rapid assessment of hybrid
characteristics. |
|
|
460 |
Burbank carried on his
plant hybridization and selection on a huge scale. At any one time he
maintained as many as 3,000 experiments involving millions of plants. In his
work on plums, he tested about 30,000 new varieties. The Plant Patent Act of
1930 amended U.S. patent law to permit protection of new and distinct
varieties of asexually reproduced plants, other than tuber-propagated plants.
This legislation resulted from the growing awareness that plant breeders had
no financial incentive to enter plant breeding because they could not
exercise control over their discoveries. In supporting this legislation,
Thomas A. Edison testified: ' This (bill) will, I feel sure, give us many
Burbanks.' Plant Patent Nos. 12, 13, 14, 15, 16, 18, 41, 65, 66, 235, 266,
267, 269, 290, 291, and 1041 were issued to Burbank posthumously. |
|
| 1912 |
462 |
Joseph H. Burckhalter |
|
|
Born Oct 9
1912 |
|
|
Isothiocyanate Compounds and Means of Producing the Same |
Med |
|
Isothiocyanate Compounds
(Antigen) |
|
|
472 |
Antibodies are the
body's protectors. When antigens, such as bacteria or viruses, enter the
body, antibodies from a previous infection or vaccine combine with them and
deactivate the invaders. |
|
|
474 |
During the 1950s, as
medical researchers came to understand this relationship, it became a
priority to identify antigens. |
|
| 1980 |
476 |
Joseph
Burckhalter and Robert Seiwald made an essential contribution to the
identification of antigens through the synthesis of fluorescein
isothiocyanate, better known as FITC. |
|
|
480 |
The first practical and
first patented antibody labeling agent, the stable, yellow-green-fluorescent
compound has become widely used for rapid, accurate, and economic diagnosis
of infectious diseases. |
|
|
482 |
FITC has played an
important role in identifying the cause of AIDS and can be used to
distinguish between different strains of streptococci. It has proved
infallible in tests for syphilis. FITC and red RITC (rhodamine
isothiocyanate) are used together to quickly diagnose leukemia and lymphoma. |
|
|
484 |
FITC
also paved the way for the development of other labeling procedures, such as
radioimmunoassay and enzyme-linked immosorbent assay (ELISA). |
|
|
488 |
Born
in Columbia, South Carolina, Burckhalter earned a B.S. in chemistry from the
University of South Carolina in 1934, an M.S. in organic chemistry from the
University of Illinois, Urbana, in 1938, and a Ph.D. in medicinal chemistry
from the University of Michigan in 1942. He then worked at Parke-Davis. From
the pain-relieving drug now Tylenol, he derived Camoquin, a cure for malaria.
Burckhalter was a professor of medicinal chemistry at the University of
Michigan from 1960 to 1983. Since 1983 he has been a research professor at
Florida Institute of Technology. |
|
| 1857 |
490 |
William Seward Burroughs |
|
|
Born Jan 28 1857 - Died Sep 14 1898 |
|
|
Calculating Machine |
Tool |
|
Calculator |
|
| 1883 |
500 |
William
Seward Burroughs invented the first practical adding and listing machine.
Burroughs submitted a patent application in 1885 for his 'Calculating
Machine' and the patent was awarded in 1888. In 1886 Burroughs and several
St. Louis businessmen formed the American Arithmometer Co. to market the
machine. The first machine, however, required a special knack in pulling the
handle to execute the calculation correctly. More often than not novice users
would get wildly differing sums depending on the vigor they employed in using
the invention. In 1893 Burroughs received a patent for an improved
calculating machine, which incorporated an oil-filled 'dashpot,' a hydraulic
governor. This device enabled the machine to operate properly regardless of
the manner with which the handle might be pulled. |
|
|
508 |
Born in Rochester, New
York, Burroughs began his career as a bank clerk in the Cayuga County
National Bank in Auburn, New York. His poor health necessitated a move to a
warmer climate, however, and he relocated to St. Louis in 1882. Working in a
bank inspired the young inventor with a vision of a mechanical device that
would relieve accountants and bookkeepers of the monotony of their tasks and
ensure that a smaller percentage of their time was spent correcting errors.
Burroughs began work on his mechanical accounting device shortly after he
moved to St. Louis. A sympathetic shop owner, Joseph Boyer, encouraged his
work by giving him bench space at the Boyer Machine Shop and provided him
with a young assistant, Alfred Doughty, later president of the Burroughs
Adding Machine Company. Burroughs retired from his company in 1897 due to
poor health and moved to Citronelle, Alabama. By 1898, the year Burroughs
died, more than 1,000 machines had been sold, and by 1926 the company,
renamed the Burroughs Adding Machine Company, had produced a million
machines. |
| 1865 |
510 |
William Meriam Burton |
|
|
Born Nov 17 1865 - Died Dec 29 1954 |
|
|
Manufacture of Gasoline |
Chem |
|
Catalytic Cracking |
|
| 1900 |
520 |
Chemist
and oil industry executive William Meriam Burton recognized the need for
altering the methods of refining crude oil at the turn of the century to
produce gasoline and developed the first commercially successful process for
cracking crude oil into gasoline and other products. |
|
|
524 |
Burton
demonstrated the value of laboratory research and testing, and the cracking
process he developed more than doubled the potential yield of gasoline from
crude oil. During its first 15 years in use the process saved more than 1
billion barrels of crude oil. |
|
|
528 |
Born in Cleveland, Ohio,
Burton received his preliminary education at public schools in his hometown
and graduated with a B.A. from Western Reserve University in 1886. He did
graduate work in chemistry at Johns Hopkins University and received a Ph.D.
in 1889. Burton started work at Standard Oil in Cleveland as a chemist and in
1890 transferred to Standard Oil of Indiana. There he later served as
assistant superintendent and in 1895 became superintendent of the refinery.
He was elected a director of the company in 1911, vice president in 1915, and
president in 1918. He continued as president until he retired in 1927. |
|
| 1904 |
530 |
Donald L. Campbell |
|
|
Born Aug 5
1904 |
|
|
Method of and Apparatus for Contacting Solids and Gases |
Chem |
|
Catalytic Cracking |
|
| 1942 |
540 |
Donald Campbell was one
of four Exxon Research & Engineering Co. (ER&E) inventors who
revolutionized the petroleum industry through fluid catalytic cracking, a
process that greatly increases the yield of high-octane gasoline from crude
oil. |
|
|
542 |
Campbell
and his colleagues began thinking of a design that would allow for a moving
catalyst, to ensure a steady and continuous cracking operation. The four
ultimately invented a fluidized solids reactor bed and a pipe transfer system
between the reactor and the regenerator unit in which the catalyst is
processed for re-use. In this way, the solids and gases are continuously
brought in contact with each other to bring on the chemical change. |
|
|
546 |
This
work culminated in a 100 barrel-per-day demonstration pilot plant. The first
commercial production plant processed 13,000 barrels of heavy oil daily,
making 275,000 gallons of gasoline. |
|
|
550 |
Campbell, born in
Clinton, Iowa, was always fascinated by inventing and solving problems. He
first attended Iowa State University, then MIT and the Harvard Business
School. During his 41 years at Exxon, 25 were spent at ER&E. At his
retirement in 1969, he held 30 patents and was assistant to the vice
president of New Areas of Research. |
|
| 1916 |
552 |
Marvin Camras |
|
|
Born Jan 1 1916 - Died Jun 23 1995 |
|
|
Method and Means of Magnetic Recording |
Elec |
|
Magnetic Recording |
|
| 1938 |
562 |
Marvin
Camras' inventions are used in modern magnetic tape and wire recorders,
including high frequency bias, improved recording heads, wire and tape
material, magnetic sound for motion pictures, multitrack tape machines,
stereophonic sound reproduction, and video tape recording. |
|
|
566 |
Before
and during World War II his early wire recorders were used by the military to
train pilots. Battle sounds were recorded and equipment was developed to
amplify it by thousands of watts. The recordings were placed where the
invasion of D-Day was not to take place, giving false information to the
Germans. The public first heard of Camras' work after the war had ended. |
|
|
570 |
Born in Chicago,
Illinois, Camras received a B.S. in 1940, an M.S. in 1942, and an Honorary
Doctorate in 1978 from the Illinois Institute of Technology. He had spent
most of his working life at the IIT Research Institute, where he served as
senior scientific adviser. In the 1930s Camras developed a successful wire
recorder. Camras received more than 500 patents, largely in the field of
electronic communications. |
|
| 1906 |
572 |
Chester F. Carlson |
|
|
Born Feb 8 1906 - Died Sep 19 1968 |
|
|
Electrophotography |
Elec |
|
Electrophotography
(Xerox) / Instant Copying |
|
| 1947 |
582 |
Physicist
Chester F. Carlson, the father of xerographic printing, was born in Seattle,
Washington. Plagued by needs for copies of patent drawings and
specifications, Carlson investigated ways of automatic text and illustration
reproduction, working out of his apartment. While others sought chemical or
photographic solutions to 'instant copying' problems, Carlson turned to
electrostatics and in 1938 succeeded in obtaining his first 'dry-copy' and
the first of many patents two years later. It took presentations to more than
20 companies before Carlson was able to interest the Battelle Development
Corporation in his invention in 1944. In 1947 the Haloid Company-renamed
Xerox Corporation-negotiated commercial rights to his xerographic
development. Eleven years later, and just 10 years before his death in 1968,
Xerox introduced its first office copier. |
|
|
590 |
As a high school
student, Carlson published a chemical magazine to support his invalid
parents. His interest in printing continued through his physics degree
program at the California Institute of Technology and into his early career
at the electronics firm P.R. Mallory Company, where he began working for the
patent department in 1930. |
|
| 1896 |
592 |
Wallace Hume Carothers |
|
|
Born Apr 27 1896 - Died Apr 29 1937 |
|
|
Diamine-Dicarboxylic Acid Salts and Process of Preparing Same; Synthetic Fiber |
Chem |
|
Synthetic Rubber |
|
| 1935 |
602 |
Wallace
Hume Carothers, who has been called one of the most brilliant organic
chemists ever employed by E.I. du Pont de Nemours & Company, spent only
nine years at Du Pont before his death. But in that time he made
contributions to the theory of organic chemistry that led to the invention of
polymeric materials such as the synthetic materials nylon and neoprene, the
first commercially successful synthetic rubber. During his brief period at Du
Pont, Carothers first worked on the polymerization of acetylene and its
derivatives; this led to the development by other scientists of
neoprene. |
|
|
606 |
His
most outstanding work involved the theory of linear polymerization, which he
tested by synthesizing a large number of polymers structurally similar to
cellulose and silk. This work culminated in the production of nylon, which is
today used in a wide variety of applications including apparel, carpeting,
home furnishings, and industrial products. The invention of nylon marked the
beginning of a new era of synthetic fibers which is still expanding. |
|
|
610 |
Born in Burlington,
Iowa, Carothers was educated in the public schools of Des Moines. He first
studied accounting and secretarial courses then entered Tarkio College as a
science student while simultaneously holding assistantships in English and
commercial studies. After receiving a B.S. from Tarkio, Carothers obtained
his master's and doctor's degrees from the University of Illinois. He held
teaching positions briefly at the University of South Dakota, University of
Illinois, and Harvard University before joining Du Pont in 1928 as head of
fundamental research in organic chemistry. |
|
| 1876 |
612 |
Willis Haviland Carrier |
|
|
Born Nov 26 1876 - Died Oct 9 1950 |
|
|
Apparatus for Treating Air |
Home |
|
Air Conditioner |
|
| 1911 |
622 |
American
engineer and inventor Willis Haviland Carrier developed the formulae and
equipment that made air conditioning possible. The world's first spray type
air conditioning equipment was Carrier's 'Apparatus for Treating Air,' which
he correctly predicted would be used to enhance comfort as well as improve
industrial processes and products. In 1911 Carrier disclosed his basic
'Rational Psychrometric Formulae' to the American Society of Mechanical
Engineers. The formulae still stand as the basis for all fundamental
calculations in the air conditioning industry. His development of the first
safe, low pressure centrifugal refrigeration machine using nontoxic,
nonflammable refrigerant marked the beginning of the era of comfort cooling. |
|
|
626 |
Carrier's
early work in developing centrifugal refrigeration machines led to new safe
refrigerants for which he also received several patents. By controlling
humidity as well as temperature, he invented air conditioning as we know it
today. |
|
|
630 |
Born near Angola in
western New York, Carrier attended Cornell University and graduated with an
M.E. in 1901. Only one year later his first installation of scientific air
conditioning was in operation, controlling both temperature and humidity in a
Brooklyn printing plant. Carrier and several other engineers formed the
Carrier Engineering Corporation in 1915 with capital of $35,000. |
|
| 1860 |
632 |
George Washington Carver |
|
|
Born Jan 1 1860 - Died Jan 5 1943 |
|
|
Cosmetic and Process of Producing the Same; Paint and Stain and Process of Producing the Same Peanut
Products |
Ag |
|
Agricultural chemist
George Washington Carver developedcrop-rotation methods for conserving
nutrients in soil and discovered hundreds of new uses for crops such as the
peanut, which created new markets for farmers, especially in the South. |
|
| 1910 |
644 |
At Tuskegee, Carver
developed his crop rotation method, which alternated nitrate producing
legumes-such as peanuts and peas-with cotton, which depletes soil of its
nutrients. Following Carver's lead, southern farmers soon began planting
peanuts one year and cotton the next. While many of the peanuts were used to
feed livestock, large surpluses quickly developed. Carver then developed 325
different uses for the extra peanuts-from cooking oil to printers ink. When
he discovered that the sweet potato and the pecan also enriched depleted
soils, Carver found almost 20 uses for these crops, including synthetic
rubber and material for paving highways. |
|
|
648 |
Born of slave parents in
Diamond Grove, Missouri, Carver was rescued from Confederate kidnappers as an
infant. He began his education in Newton County in southwest Missouri, where
he worked as a farm hand and studied in a one-room schoolhouse. He went on to
excel at Minneapolis High School in Kansas. Though denied admission to
Highland University because of his race, Carver gained acceptance to Simpson
College in Indianola, Iowa, in 1887. |
|
|
650 |
Intent
on a science career, he transferred to Iowa Agricultural College (now Iowa
State University) in 1891 and gained a B.S. in 1894 and an M.S. in
agriculture in 1897. Later that year Booker T. Washington, founder of the
Tuskegee Institute, convinced Carver to come south and serve as the school's
director of agriculture. Upon his death, Carver contributed his life savings
to establish a research institute at Tuskegee. His birthplace was declared a
national monument in 1953. |
|
| 1935 |
652 |
Stan Cohen |
|
|
Born Feb
17 1935 |
|
|
Process for Producing Biologically Functional Molecular Chimeras |
Med |
|
Genetic Engineering |
|
| 1975 |
662 |
Herb
Boyer was with the University of California, San Francisco when he began
investigating DNA with Stan Cohen. Their experiments marked the beginning of
genetic engineering and launched the multi-billion dollar biotechnology
industry. By early 1973, Boyer and Cohen determined that they were able to
add genes from an organism to a simple cell; the genes would then replicate
in the cell. Their recombinant DNA patents generated over $250 million in
royalties before expiring. Recombinant DNA technology is considered the most
significant achievement in molecular biology since Watson & Crick's work
in 1953. After working with Cohen, Boyer joined forces with venture
capitalist Robert Swanson to create the biotechnology firm Genentech, Inc.
Since its founding in 1976, Genentech has produced a number of firsts such as
genetically engineered human insulin. Genetically altered crops are also
being researched to deal with global food supply issues. |
|
|
670 |
Cohen was born in Perth
Amboy, New Jersey. He graduated from Rutgers University in 1956 and from the
University of Pennsylvania School of Medicine in 1960. He joined the faculty
of the Stanford University School of Medicine in 1968, where he remains today.
His many awards include the National Medal of Science and the National Medal
of Technology. |
|
| 1923 |
672 |
Frank B. Colton |
|
|
Born Mar 3
1923 |
|
|
Estradiene Compounds |
Med |
|
Oral Contraceptives |
|
| 1960 |
682 |
Frank
B. Colton developed Enovid, the first oral contraceptive. Colton has made
many important contributions to medicinal organic chemistry and particularly
to steroid chemistry. His pioneering research on the relationship between
structure and biological activity, particularly of 19-nor steroids, led to
the development of Nilevar, the first orally active anabolic agent which had
a distinct separation between protein building and masculinizing
properties. |
|
|
686 |
Of
even greater importance was his research which resulted in the discovery of
Enovid. The introduction of this substance in 1960 for family planning
purposes ushered in the era of oral contraception. |
|
|
690 |
Born in Poland, Colton
immigrated to the United States in 1934. He obtained his B.S. and M.S.
degrees in chemistry from Northwestern University in 1945 and 1946 and his
Ph.D. from the University of Chicago in 1950. Between 1949 and 1951 Colton
was a research fellow at the Mayo Foundation, where he was associated with
the Nobel Laureate Edward C. Kendall and helped develop an improved synthesis
of cortisone. Colton joined G.D. Searle and Company in 1951 as a senior
research chemist and after a series of more progressively responsible
positions retired in 1986 as research adviser. |
|
| 1923 |
692 |
Lloyd H. Conover |
|
|
Born Jun
13 1923 |
|
|
Tetracycline |
Med |
|
Tetracycline |
|
| 1955 |
702 |
Lloyd
H. Conover invented the antibiotic tetracycline, which became the most
prescribed broad spectrum antibiotic in the United States within three years
and remains the drug of choice for a number of serious bacterial infections. |
|
|
706 |
Tetracycline
was the first therapeutically superior drug to be made by chemical alteration
of an antibiotic produced by microbial metabolism. It sparked a wide-scale
search for superior structurally modified antibiotics, which has provided
most of the important antibiotic discoveries made since then. |
|
|
710 |
Born in Orange, New
Jersey, Conover received his A.B. from Amherst College in 1947 and a Ph.D.
from the University of Rochester in 1950. At first he thought he wanted to
teach, but he joined the fledgling Chemical Research Department of Pfizer
instead. There he joined a team which was exploring the molecular
architecture of the broad-spectrum antibiotics Terramycin and Aureomycin. The
tetracycline patent was attacked in court from its issue in 1955 until the
final ruling in 1982. But Conover's patent was consistently upheld by the
courts. Conover also led the Pfizer team which, in collaboration with Harvard
Professor R.B. Woodward, first synthesized biologically active tetracycline
antibiotic from simple molecular building blocks. Together with coinventors
W.C. Austin and J.W. McFarland, Conover patented the anthelmintic drugs
pyrantel and morantel in 1972. Pyrantel remains a leading drug for the
treatment of most of the intestinal worm parasites of man. Each of these
drugs also retains an important place in the control of such parasites in
farm and companion animals. Conover became research director at Pfizer
Central Research in Sandwich, England, in 1971. He retired as a senior vice
president in 1984. |
|
| 1873 |
712 |
William D. Coolidge |
|
|
Born Oct 23 1873 - Died Feb 4 1975 |
|
|
Vacuum Tube (X-Ray) |
Elec |
|
Vacuum Tube (X-Ray) |
|
| 1928 |
722 |
William
D. Coolidge's name is inseparably linked with the X-ray tube-popularly called
the 'Coolidge tube.' |
|
|
726 |
This
invention completely revolutionized the generation of X-rays and remains to
this day the model upon which all X-ray tubes for medical applications are
patterned. |
|
|
730 |
Coolidge, born in
Hudson, Massachusetts, graduated from the Massachusetts Institute of
Technology in 1896, majoring in electrical engineering. He received his Ph.D.
in 1899 from the University of Leipzig. He later returned to MIT, working
first as an instructor and later as an assistant professor. Coolidge joined
the staff of General Electric Company's Research Laboratory in 1905 and early
in his career played a major role in the development of the modern
incandescent lamp. He invented ductile tungsten, the filament material still
used in such lamps. He worked on many other devices such as high-quality
magnetic steel, improved ventilating fans, and the electric blanket. During
World War II he contributed research to projects involving radar and radar countermeasures.
He was awarded 83 patents during his lifetime |
|
| 1877 |
732 |
Frederick G. Cottrell |
|
|
Born Jan 10 1877 - Died Nov 16 1948 |
|
|
Art of Separating Suspended Particles from Gaseous Bodies |
Chem |
|
Electrostatic
Precipitator |
|
|
742 |
As
industrial smokestacks became a common sight at the turn of the century,
Frederick Cottrell realized that pollution might be controlled and that
valuable raw materials were vanishing into the atmosphere with the unwanted
gases. In 1907 he applied for a patent for a device that passed high-voltage
direct current to a discharge electrode which leaked the charge onto
particles passing by in the fumes. These charged particles were then
electrically attracted to an electrode with an opposite charge, where they
could be collected and retrieved as valuable minerals or chemical
compounds. |
|
| 1908 |
746 |
Cottrell's
electrostatic precipitator, which became known simply as a 'Cottrell,'
removed from 90 to 98 percent of all particles from escaping smoke and gases.
The term 'cottrell' can still be found in the unabridged dictionary. |
|
|
750 |
Cottrell was born in
Oakland, California, and his childhood hobbies included photography,
electricity, telegraphy, and publishing a weekly newspaper. In 1896 he
received his B.S. from the University of California at Berkeley. He then
taught high school chemistry, before receiving his doctorate from the
University of Leipzig in 1902. In 1912, with the help of Charles Walcott,
then secretary of the Smithsonian Institution, Cottrell founded Research
Corporation, a nonprofit group that plowed money from the precipitator and
other inventions back into the advancement of science. The Research
Corporation has since funded basic research on such important inventions as
Williams' Vitamin B1, Goddard's rockets, and Lawrence's cyclotron. Later
Cottrell worked for the Federal Bureau of Mines, the National Research
Council, and the Department of Agriculture. |
|
| 1925 |
752 |
Seymour Cray |
|
|
Born Sep 28 1925 - Died Oct 5 1996 |
|
|
Computer Vector Register Processing |
Comp |
|
Supercomputer |
|
| 1976 |
762 |
Seymour
Cray unveiled the CRAY-1 in 1976, considered the first supercomputer. |
|
|
766 |
The
CRAY-2, his second supercomputer, came in 1985. The amount of silicon chips
used in CRAY-2 caused a problem because they overheated so intensely during
use. By immersing CRAY-2 in a cooling bath of liquid fluorocarbon, Cray kept
the chips from melting. Cray's theory for success with the CRAY-3 was to
substitute revolutionary new gallium arsenide integrated circuits for the
traditional silicon ones. |
|
|
770 |
Born in Chippewa Falls,
Wisconsin, Cray was interested in chemistry and radio as a child. After a
brief service during World War II, he went to the University of Minnesota
where he studied engineering. In 1951 he joined Engineering Research
Associates which was developing computers for the Navy. Later he co-founded
Control Data Corporation, and in 1972 he founded CRAY Research. In 1988 he
founded Cray Computer in Colorado Springs where he worked on CRAY-3. |
|
|
772 |
Shortly before his death
in 1996, he founded SRC Computers, Inc. |
|
| 1936 |
774 |
Raymond V. Damadian |
|
|
Born Mar
16 1936 |
|
|
Apparatus and Method for Detecting Cancer in Tissue |
Med |
|
MRI |
|
| 1984 |
784 |
Raymond
Damadian invented the magnetic resonance imaging (MRI) scanner, which has
revolutionized the field of diagnostic medicine. The MRI obtains information
through the use of static and dynamic magnetic fields, a method that yields
radio signal outputs from the body's tissue that can be either transformed
into images or analyzed to provide the chemical composition of the tissue
being examined. |
|
|
788 |
His
MRI produced images of the interior of the body far more detailed than was
possible with X-ray devices such as the CAT scanner. Since the device's
approval in 1984 by the Food and Drug Administration hundreds have been put
to use in medical institutions around the world. |
|
|
792 |
Born in Forest Hills,
New York, Damadian attended the Juilliard School of Music for eight years,
studying violin. He received his B.S. in mathematics in 1956 from the
University of Wisconsin and an M.D. degree from the Albert Einstein College
of Medicine in New York in 1960. Damadian later served as a fellow in
nephrology at Washington University School of Medicine and as a fellow in
biophysics at Harvard University, where he completed academic work in
physics, physical chemistry, and mathematics. He studied physiological
chemistry at the School of Aerospace Medicine in San Antonio, Texas. After
serving in the Air Force, Damadian joined the faculty of the State University
of New York Downstate Medical Center in 1967. His training in medicine and
physics led him to develop a new theory of the living cell, his Ion Exchanger
Resin Theory. Damadian founded the FONAR Corporation in 1978 for the
manufacture of the MRI scanner. |
|
| 1907 |
794 |
George de Mestral |
|
|
Born Jun 19 1907 - Died Feb 8 1990 |
|
|
Velvet Type Fabric and Method of Producing the Same |
Home |
|
Velcro |
|
| 1955 |
804 |
In
1955, George de Mestral patented VELCRO® hook and loop fasteners, an
efficient way to fasten fabrics and other materials. The idea came to him
after observing the way a burr’s barbed hooks clung to clothing. He found the
logistics of attaching hundreds of tiny hooks to cloth tape to be a
challenge, but eventually his hook and loop fastener was manufactured as
VELCRO®, derived from the French words velour (velvet) and crochet (hooks).
Although most hook and loop tapes are nylon-based, there are also varieties
made from plastic, stainless steel, and silver-impregnated substances for
electrical applications. |
|
|
808 |
VELCRO®
fasteners have provided society with a practical and effective tool. Touch
fasteners are used in clothing, aircraft, office equipment, and sporting and
leisure equipment. They are also used in the automotive and medical
industries, nuclear engineering, and NASA’s space program. |
|
|
812 |
De Mestral was born in a
small village near Lausanne, Switzerland. By working odd jobs, he paid his
way through the Ecole Polytechnique Federale de Lausanne, where he graduated
as an electrical engineer. He began his own company to manufacture VELCRO® fasteners,
and later sold it and all patent rights. Today, the Velcro companies continue
to manufacture touch fasteners and other products. |
|
| 1957 |
813 |
Mark Dean |
|
|
Born Mar 2
1957 |
|
|
Microcomputer System with Bus Control Means for Peripheral Processing Devices |
Comp |
|
Peripherals |
|
| 1980 |
823 |
Mark
Dean and his co-inventor Dennis Moeller created a microcomputer system with
bus control means for peripheral processing devices. |
|
|
827 |
Their
invention paved the way for the growth in the Information Technology industry
by allowing the use of plug-in subsystems and peripherals like disk drives,
video gear, speakers, and scanners. |
|
|
831 |
Born in Jefferson City,
Tennessee, Dean received his undergraduate degree in Electrical Engineering
from the University of Tennessee, his MSEE from Florida Atlantic University
and his Ph.D. in Electrical Engineering from Stanford University. Early in
his career at IBM, Dean was chief engineer working with IBM personal
computers. The IBM PS/2 Models 70 and 80 and the Color Graphics Adapter are
among his early work; he holds three of IBM’s original nine PC patents. |
|
|
833 |
Currently, Dean is Vice
President of Systems Research. Dean was named an IBM fellow in 1996 and in
1997 received the Black Engineer of the Year President’s Award. Dean holds
more than twenty patents. |
|
| 1804 |
835 |
John Deere |
|
|
Born Feb 7 1804 - Died May 17 1886 |
|
|
Improvement in Plows |
Ag |
|
Plows |
|
| 1838 |
845 |
John
Deere developed the first American cast steel plow. The implements being used
by pioneer farmers of that day were cumbersome and ineffective for cutting
and turning the prairie soil. To alleviate the problem, Deere and a partner,
Major Leonard Andrus, designed three new plows in 1838. Their cutting part
was made from steel cut from an old sawmill blade and shaped by bending it
over a log. The moldboard, used for lifting and turning, was made of wrought
iron and polished on the upper surface to prevent clogging. |
|
|
849 |
The
plow was so successful that by 1846 Deere and his partner were selling a
thousand a year. Deere then sold his interest in the Grand Detour enterprise
to Andrus and organized a plow company in Moline, Illinois. After
experimenting with imported English steel, he had a cast steel plow made for
him in Pittsburgh. By 1855 he was selling more than 13,000 such plows a
year. |
|
|
853 |
Born in Rutland,
Vermont, Deere served a four-year apprenticeship to a blacksmith and worked
in that trade until 1837, when he moved to Grand Detour, Illinois. In 1868
his business was incorporated as Deere & Company, which is still in
existence today. |
|
| 1873 |
855 |
Lee Deforest |
|
|
Born Aug 26 1873 - Died Jun 30 1961 |
|
|
Space Telegraphy |
Telcom |
|
Radio |
|
| 1905 |
865 |
In
the early 1900s, the great requirement for further development of radio was
an efficient and delicate detector of electromagnetic radiation. Lee de
Forest provided that detector. DeForest found a clue to creating the
long-sought detector of electromagnetic radiation in John A. Fleming's
invention of the so-called electronic valve. The most serious drawback of the
Fleming valve was that it was relatively insensitive to changes in the
intensity of incident electromagnetic radiation. Moreover, the Fleming valve
could act only as a rectifier, not an amplifier. DeForest's simple but
revolutionary answer was to insert a third electrode between the cathode and
the anode. The audion amplifier was the most important of de Forest's more
than 300 patents. |
|
|
873 |
Born
at Council Bluffs, Iowa, de Forest at an early age exhibited the inventive
talents that were to make him famous. His father sent him to the Mt. Hermon
(Massachusetts) School for Boys and from there he entered Yale University.
While in college, he continued to invent-an improved typebar movement for his
typewriter, an improved compass joint, a 'puzzle game'-all to help defray his
expenses. After receiving his B.S., he continued his studies at Yale and
received his Ph.D. in 1899. De Forest's doctorate thesis was on the
"Reflection of Hertzian Waves from the Ends of Parallel Wires";
thus began his long career in radio |
|
| 1932 |
875 |
Robert Dennard |
|
|
Born Sep 5
1932 |
|
|
Field-Effect Transistor Memory |
Comp |
|
DRAM |
|
| 1968 |
885 |
Robert
Heath Dennard invented one-transistor Dynamic Random Access Memory (DRAM),
which allowed major increases in computer memory density and decreases in
cost. |
|
|
889 |
It
became the standard of the industry for RAM and enabled the microcomputer
revolution. It is now commonly used in all forms of business and personal
computers. |
|
|
893 |
Born in Terrell, Texas,
he received BS (1954) and MS (1956) degrees in Electrical Engineering from
Southern Methodist University. In 1958 he received a Ph.D. in Electrical
Engineering from Carnegie Institute of Technology and joined IBM's Research
Division. Since 1963, he has been at IBM's Thomas J. Watson Research Center,
where he has worked on field-effect transistors, integrated circuit design,
and memory cells and organizations. Dennard received the patent for
one-transistor DRAM in 1968. |
|
|
895 |
Dennard has been a
pioneer in scaling theory, which provides rules for making circuits smaller
in every dimension. An IBM fellow since 1979, his awards include the National
Medal of Technology, presented by President Reagan and the Harvey Prize, from
Technion (the Israel Institute of Technology). |
|
| 1858 |
897 |
Rudolf Diesel |
|
|
Born Mar 18 1858 - Died Sep 29 1913 |
|
|
Internal-Combustion Engine |
Tool |
|
Internal-Combustion
Engine |
|
| 1896 |
907 |
Though
best known for his invention of the pressure-ignited heat engine that bears
his name, the French-born Rudolf Diesel was also an eminent thermal engineer,
a connoisseur of the arts, a linguist, and a social theorist. Diesel's
inventions have three points in common: They relate to heat transference by
natural physical processes or laws; they involve markedly creative mechanical
design; and they were initially motivated by the inventor's concept of
sociological needs. Diesel originally conceived the diesel engine as a
facility, readily adaptable in size and costs and utilizing locally available
fuels, to enable independent craftsmen and artisans better to endure the
powered competition of large industries that then virtually monopolized the
predominant power source-the oversized, expensive, fuel-wasting steam
engine. |
|
|
911 |
His
engines were used to power pipelines, electric and water plants, automobiles
and trucks, and marine craft, and soon after were used in applications
including mines, oil fields, factories, and transoceanic shipping. |
|
|
915 |
During 1885 Diesel set
up his first shop-laboratory in Paris and began his 13-year ordeal of
creating his distinctive engine. At Augsburg, on August 10, 1893, Diesel's
prime model, a single 10-foot iron cylinder with a flywheel at its base, ran
on its own power for the first time. Diesel spent two more years at
improvements and on the last day of 1896 demonstrated another model with the
spectacular, if theoretical, mechanical efficiency of 75.6 percent, in
contrast to the then-prevailing efficiency of the steam engine of 10 percent
or less. Although commercial manufacture was delayed another year and even
then begun at a snail's pace, by 1898 Diesel was a millionaire from franchise
fees in great part international. |
|
| 1901 |
917 |
Walt Disney |
|
|
Born Dec 5 1901 - Died Dec 15 1966 |
|
|
Multiplane Camera |
Video |
|
Multiplane Camera |
|
| 1937 |
927 |
Seldom
has an individual become so intrinsically linked to a concept as Walt Disney
has with the concept of imagination. His was the catalyst for his incredible
body of work, which in turn fed the imagination of millions who have been
inspired by it. Disney’s invention of the multiplane camera brought better
looking, richer animation and in 1937, Snow White and the Seven Dwarfs was
the first full-length animated film to use the camera. |
|
|
929 |
The
movies that Disney created are amazingly diverse and illustrate the range of
his inventiveness. |
|
|
933 |
Today, Mickey Mouse and
many other Disney characters are recognized and revered by millions around
the world. |
|
|
935 |
Not
only did his work delight and entertain audiences, but it also created
opportunities for the many talented individuals who worked for and with him
to craft these masterpieces. Part of Disney’s genius lay in his ability to
conceive new images and projects and then effectively direct others in
bringing them to fruition. |
|
|
939 |
Disney's rise to fame is
a classic American success story. From humble farmland beginnings, he rose to
great heights through hard work, creativity, ingenuity and resilience. Fueled
by his extraordinary imagination, he revolutionized animation, transforming
the animated cartoon into an entirely new and different art form. |
|
|
941 |
In
1928, he introduced Mickey Mouse in the sound cartoon, Steamboat Willie.
Disney’s full-length animated features included the favorites Pinocchio,
Fantasia, Dumbo and Bambi. Disney also pioneered the entertainment-complex
concept with Disneyland in California and took it to a new level with Walt
Disney World in Florida. He earned more than 30 Academy Awards, an honorary
degree from Harvard and the Medal of Freedom, presented to him by President
Lyndon Johnson in 1964. |
|
| 1923 |
943 |
Carl Djerassi |
|
|
Born Oct
29 1923 |
|
|
Oral Contraceptives |
Med |
|
Oral Contraceptives |
|
| 1951 |
953 |
Carl
Djerassi is recognized for his breakthroughs in chemistry and for his
effective translation of theory into practice. His achievements include
establishing physical methods for determining organic molecular structure and
the synthesis of many steroids. |
|
|
957 |
His
work led to oral contraceptives, antihistamines, and anti-inflammatory
agents. |
|
|
961 |
Born in Vienna, Austria,
Djerassi graduated from Kenyon College with an A.B. degree (Organic
Chemistry) in 1942 and received his Ph.D. from the University of Wisconsin in
1945. He was a research chemist from 1942 to 1952, and professor at Wayne
State University from 1952 to 1959. He became a professor (chemistry) at
Stanford University in 1959. Djerassi is widely known for his contributions
to synthetic organic chemistry and to physical methods of determining organic
molecular structure, his effectiveness in translating scientific knowledge
into technological practice, and his efforts to promote international
scientific cooperation. His research is in such diverse fields as chemistry
of steroids; structure of alkaloids, antibiotics and terpenoids; synthesis of
drugs, particularly antihistamines, oral contraceptives, and
anti-inflammatory agents; optical rotatory dispersion studies, organic mass
spectrometry, and magnetic circular diehroism of organic compounds. He has
lectured extensively on birth control issues. |
|
| 1866 |
963 |
Herbert Henry Dow |
|
|
Born Feb 26 1866 - Died Oct 16 1930 |
|
|
Process of Extracting Bromine |
Chem |
|
Bromine Extraction |
|
| 1889 |
973 |
Herbert
Henry Dow, founder of the Dow Chemical Company, was one of the creators of
the modem American chemical industry. His inventions included such diverse
items as electric light carbons, steam and internal combustion engines,
automatic furnace controls, and water seals, but most of his inventions were
chemical in nature. |
|
|
977 |
Most
of his chemical patents were for truly "pioneer" inventions. The
remainder were practical improvements which took halogen science from theory
to reality, creating employment and an environment which encouraged a healthy
combination of basic and applied research. The combined effect of his
inventions was to improve the quality of life for millions of people around
the world. |
|
|
981 |
Born
in Belleville in Ontario, Canada, Dow received his formal training from Case
School of Applied Science and graduated in 1888 with a B.S. degree. |
|
|
983 |
As a young man Dow
entered the rudimentary chemical industry of the 1890s by inventing an
entirely new method of extracting bromine from the prehistoric brine trapped
underground at Midland, Michigan. His first patent was issued in 1889, and by
1933 he had over 90 patents. He is best known for his work in halogen
chemistry, particularly the production of bromine and chlorine. |
|
|
985 |
Dow was a
public-spirited citizen, serving on boards of public works and education for
many years. His favorite saying was, "If we can't do it better than the
others, why do it?" |
|
| 1901 |
987 |
Charles Stark Draper |
|
|
Born Oct 2 1901 - Died Jul 25 1987 |
|
|
Gyroscopic Apparatus |
Tool |
|
Stabilizing Gyroscpic |
|
| 1939 |
997 |
Aeronautical
engineer and university professor Charles Stark Draper developed gyroscope
systems that stabilized and balanced gunsights and bombsights, which were
later expanded to an inertial guidance system for launching long-range
missiles at supersonic jet targets. Having already established his
credentials as a scientist and educator at MIT, Draper was named head of the
institute's Instrumentation Laboratory in 1939. There he developed a spinning
gyroscope, stabilizing Navy antiaircraft gunsights. |
|
|
1001 |
Success
led to gyroscopic-balanced bombsights, which were later expanded to the
inertial guidance system for missiles. Draper subsequently developed the
Spatial Inertial Reference Equipment (SPIRE) system for automatic
aeronautical navigation-a system he later refined and miniaturized for use in
the Polaris submarine missile system. |
|
|
1005 |
Born in Windsor,
Missouri, Charles Draper disliked specialization and so took several degrees
from Stanford and a Doctor of Sciences in Physics from the Massachusetts
Institute of Technology in 1938. He continued to be a pace-setter in the
space age as head of MIT's renamed Department of Aeronautical and
Astronautical Engineering. His Instrumentation Lab was awarded the Project
Apollo contract for guiding man and spacecraft to the moon. |
|
| 1934 |
1007 |
Graham John Durant |
|
|
Born Mar
14 1934 |
|
|
Pharmacologically Active Guanidine Compounds |
Med |
|
Tagamet - Cimetidine |
|
| 1964 |
1017 |
Graham
J. Durant, John Colin Emmett, and C. Robin Ganellin led the SmithKline
Beecham Corporation's research team that discovered the H2 receptor class of
drugs, including cimetidine, which inhibits the production of stomach acid. |
|
|
1019 |
Durant,
Emmett, and Ganellin's work, begun in 1964 and done in collaboration with
Nobel laureate biologist Sir James Black, established a physiological role
for histamine in the control of gastric acid secretions-the major cause of
ulcers. |
|
|
1023 |
The
World Health Organization lists cimetidine, known by the brand name Tagamet,
as one of the world's most essential drugs for its ability to heal stomach
ulcers without surgery. |
|
|
1027 |
Born in Newport,
Monmouthshire, Great Britain, Durant studied chemistry at Birmingham
University (B.Sc., Ph.D.) and the State University of Iowa. |
|
|
1029 |
He is the named inventor
or coinventor of more than 150 U.S. patents in H2 antagonists and several
other classes of drugs. He relocated to the United States in 1987,
established the Center for Drug Design and Development at the University of
Toledo, Ohio, and was its director until 1992. He is currently senior
director of chemistry at Cambridge NeuroScience Inc. in Cambridge,
Massachusetts. He also serves on the Board of Trustees of Inventure Place. |
|
| 1854 |
1031 |
George Eastman |
|
|
Born Jul 12 1854 - Died Mar 14 1932 |
|
|
Method and Apparatus for Coating Plates for use in Photography |
Photo |
|
Photography |
|
| 1888 |
1041 |
Eastman
began his search for a transparent and flexible film in 1884. The first
commercial film, put into production a year later, was cut in narrow strips
and wound on a roller device patented by Eastman and Walker. Film rolls
sufficient for 100 exposures were mounted in a small box camera-the Kodak,
which was introduced in 1888 priced at $25. The steady improvement of
Edison's motion-picture camera also spurred Eastman to perfect a stronger
film designed to fill that promising market. |
|
|
1045 |
'George
Eastman's inventions of dry, rolled film and the hand-held cameras that could
utilize it revolutionized photography. |
|
|
1049 |
Born in Waterville, New
York, Eastman, in 1877, embarked upon the intricate tasks of preparing the
necessary emulsions, coating the 'wet plates' on which most pictures were
then taken, and developing the prints. He pursued eagerly all available
literature on the subject and was attracted by a formula for a 'dry plate'
emulsion that appeared in an English almanac. The formula suggested the
possibility of reducing the size and weight of outdoor photographic
equipment. Eastman had in mind the commercial prospects of dry plates and by
1879 was ready to embark on a business career. Patents were secured in
England and America on his coating machine, and returns began to flow in from
foreign lessees. As passing years brought increased wealth, Eastman became one
of America leading philanthropists, giving away more than $100 million. |
|
| 1903 |
1052 |
Harold E. Edgerton |
|
|
Born Apr 6 1903 - Died Jan 4 1990 |
|
|
Stroboscope |
Photo |
|
Photography |
|
| 1955 |
1062 |
Pioneering
research in stroboscopic photography by Harold E. Edgerton was the foundation
for the development of the modern electronic speed flash. Edgerton earned
international recognition for his achievements in the related fields of
stroboscopy and ultra-high speed photography. |
|
|
1066 |
The
electronic speed flash his research spurred is important to science and
industry as well as routine photography. He originally perfected the use of
stroboscopic lights in both ultra-high-speed motion and still (stop-motion)
photography capable of revealing operations which move at speeds beyond the
perceptive capacity of the human eye (i.e., bullets in flight, light bulbs
shattering, etc.). |
|
|
1070 |
Born in Fremont,
Nebraska, Edgerton graduated from the University of Nebraska and the
Massachusetts Institute of Technology. He joined MIT as a research assistant
in 1927, became a professor in 1948, and was Institute professor emeritus
from 1966 until his death. Edgerton also made significant contributions to
underwater exploration and worked aboard the ship Calypso with Jacques
Cousteau and his crew in explorations of sea floors in the Mediterranean and
other locations. Edgerton was one of the founding partners of EG&G, Inc.
(formerly Edgerton, Germeshausen and Grier), a company specializing in
electronic technology, and also helped organize and build the New England
Aquarium in Boston. |
|
| 1837 |
1072 |
Edison , Thomas Alva |
|
|
Born 1837 - Died 1931 |
|
|
Electric Lamp |
Elec |
|
Electric |
|
| 1878 |
1074 |
One of the outstanding
geniuses in the history of technology, Thomas Edison earned patents for more
than a thousand inventions, including the incandescent electric lamp, the
phonograph, the carbon telephone transmitter, and the motion-picture
projector. In addition, he created the world's first industrial research
laboratory. In September 1878, after having viewed an exhibition of a series
of eight glaring 500-candlepower arc lights, Edison boldly announced he would
invent a safe, mild, and inexpensive electric light that would replace the
gaslight in millions of homes; moreover, he would accomplish this by an
entirely different method of current distribution from that used for arc
lights. To back the lamp effort, some of New York's leading financial figures
joined with Edison in October 1878 to form the Edison Electric Light Company |
|
| 1918 |
1076 |
Gertrude Belle Elion |
|
|
Born Jan 23 1918 - Died Feb 21 1999 |
|
|
2-Amino-6-Mercaptopurine |
Med |
|
Anti-Leukemia drugs |
|
|
1086 |
Gertrude
Belle Elion invented the leukemia-fighting drug 6-mercaptopurine and drugs
that facilitated kidney transplants. Hired by Burroughs-Wellcome (now Glaxo
Wellcome) in 1944, she began work on antagonists of nucleic acid building
blocks. This led to the synthesis of 6-mercaptopurine, a drug quickly
marketed as Purinethol, and to another antileukemic drug, 6-thioguanine. Her
continued research led to Imuran, a derivative of 6-mercaptopurine that was
found to block the body's rejection of foreign tissues. |
|
|
1090 |
In
combination with other drugs, Imuran enabled kidney transplants from
unrelated donors. Elion and her team were prominent in the development of
allopurinol (trade name Zyloprim), for treatment of gout, and of a new
antiviral agent, acyclovir (Zovirax), which has been used to battle herpes
virus infections. |
|
|
1094 |
Born in New York City,
Elion attended Hunter College at the age of 15 and graduated summa cum laude
in 1937. She received her M.S. in chemistry from New York University. From
1969 until her death, she received 25 honorary doctorates. Elion's early
career included working as a high school teacher and as an analytical
chemist. In 1988, Elion shared the Nobel Prize in Medicine with George
Hitchings, her colleague of 40 years, and researcher Sir James Black. In
1967, she was named Head of the Department of Experimental Therapy at
Burroughs-Wellcome. She officially retired in 1983. Elion continued her work
toward the advancement of science through the World Health Organization,
honorary university lectureships, and assisting students in medical research.
Her name appears on 45 patents. |
|
| 1939 |
1095 |
John Colin Emmett |
|
|
Born Apr
27 1939 |
|
|
Pharmacologically Active Guanidine Compounds |
Med |
|
Tagamet - Cimetidine |
|
| 1964 |
1105 |
Graham
J. Durant, John Colin Emmett, and C. Robin Ganellin led the SmithKline
Beecham Corporation's research team that discovered the H2 receptor class of
drugs, including cimetidine, which inhibits the production of stomach acid. |
|
|
1107 |
Durant,
Emmett, and Ganellin's work, begun in 1964 and done in collaboration with
Nobel laureate biologist Sir James Black, established a physiological role
for histamine in the control of gastric acid secretions-the major cause of
ulcers. |
|
|
1111 |
The
World Health Organization lists cimetidine, known by the brand name Tagamet,
as one of the world's most essential drugs for its ability to heal stomach
ulcers without surgery. |
|
|
1115 |
Born
in Bradford, Yorkshire, England, Emmett read chemistry at Queen Mary College,
London University (B.Sc., Ph.D.) and at Yale University. He is currently a
consultant with Euromedica Ltd. He is named co-inventor on more than 100 U.S.
patents in the fields of H2 antagonists, selective phosphodiesterase
inhibitors, and selective thyromimetics. |
|
| 1925 |
1117 |
Douglas Engelbart |
|
|
Born Jan
30 1925 |
|
|
X-Y Position Indicator for a Display System |
Comp |
|
Computer Mouse |
|
|
1127 |
Douglas
Engelbart's patent for the mouse is only a representation of his pioneering
working designing modern interactive computer environments. |
|
|
1129 |
A
main concern for Engelbert was how the computer could be used as a useful
tool in tomorrow's office. While at SRI, he developed a hypermedia groupware
system called NLS (oN-Line System). NLS utilized two-dimensional computerized
text editing, and the mouse, used to position a pointer into text, was a
critical component. During a 1968 demonstration, Engelbart first introduced
NLS--this was the world debut of the mouse, hypermedia, and on-screen video
teleconferencing. His project became the second host on Arpanet, predecessor
of the Internet. |
|
|
1137 |
Engelbart
was born and grew up near Portland, Oregon. He served in the Navy as an
electronics technician during World War II, and received his B.S. from Oregon
State University. After working for NASA's Ames Research Laboratory, he
received a Ph.D. from the University of California at Berkeley. He then
joined the Stanford Research Institute (SRI), earning a number of patents
related to computer components. |
|
|
1139 |
In the 1970s and 1980s,
Engelbart was a Senior Scientist at Tymshare, Inc., later acquired by
McDonnell-Douglas. In 1989, he founded The Bootstrap Institute, which
promotes the development of collective IQ through worldwide computer
networks. |
|
| 1803 |
1140 |
John Ericsson |
|
|
Born Jul 31 1803 - Died Mar 8 1889 |
|
|
Propelling Steam Vessels |
Tool |
|
Screw Propeller |
|
| 1862 |
1150 |
John Ericsson invented
the ship propeller and incorporated the landmark device into his design for
the Civil War ironclad the Monitor. In 1826 he moved to London, where he
showed the breadth of his engineering genius by developing or improving
transmission of power by compressed air, new types of steam boilers,
condensers for marine steam engines (so ships could travel farther), placing
warship engines below the water line (for protection against shell fire), the
steam fire-engine, the design and construction of a steam locomotive (which
competed with the historic Rocket, the first steam powered locomotive), an
apparatus that made salt from brine, superheated steam engines, the flame or
'caloric' engine. His most enduring invention was the screw propeller, which
is still the main form of marine propulsion. Early methods of applying steam
power at sea-steam-driven oars, paddle wheels-were inefficient and, for
warships, vulnerable to enemy attack. In 1839 Ericsson introduced propellers
to vessels on the canals and inland waterways and commenced building a 'big
frigate' for the U.S. Navy. He designed and built the Monitor for the Union
Navy in 100 working days. It demonstrated its superior design-steam-propelled
screw propeller, low in the water, a revolving gun turret, and iron
construction rather than wood-by defeating the Confederate Merrimac. |
|
|
1158 |
Born in the Swedish
province of Vermland, of educated parents, Ericsson first worked helping plan
a Swedish canal. While working on the canal, he was tutored in math and the
sciences. He joined the Swedish army at age 17 and did topographical surveyin |
|
| 1941 |
1161 |
Federico Faggin |
|
|
Born Dec 1
1941 |
|
|
Memory System for a Multi-Chip Digital Computer |
Comp |
|
CPU |
|
| 1969 |
1171 |
One of the most
important developments of the last half of the 20th century has been the
microprocessor. It is found in virtually every automobile, medical device,
and computer in the modern world. From its inception in 1969, the
microprocessor industry has grown to hundreds of millions of units per year. |
|
|
1173 |
In the late 1960s, many
articles had discussed the possibility of a computer on a chip. However, all
concluded that the integrated circuit technology was not yet ready. Ted Hoff
was the first to recognize that Intel's new silicon-gated MOS technology might
make a single-chip CPU possible if a sufficiently simple architecture could
be developed. Hoff developed such an architecture with just over 2000
transistors. |
|
|
1175 |
In 1969, the Japanese
calculator manufacturer Busicom asked Intel to complete the design and
manufacture of a new set of chips. Ted Hoff was assigned to work with
Busicom's engineers. Hoff realized that the Busicom's 12-chip design --
separate chips for keyboard scanning, display control, printer control, and
other functions -- could not meet the cost objectives for the project. He
proposed an alternate architecture in which a single-chip general-purpose
computer central processor (CPU) would be programmed to perform most of the
calculator functions. Busicom accepted the Intel proposal. |
|
| 1971 |
1177 |
Further
refinements in architecture and logic design were made by Stanley Mazor and
Federico Faggin and the chip was brought to silicon reality by Faggin. The
first working CPU was delivered to Busicom in February, 1971. |
|
|
1181 |
This single chip had as
much computing power as the first electronic computer, ENIAC (1946), which
filled a room. |
|
|
1183 |
Although there was an
initial reluctance on the part of Intel marketing to undertake the support
and sale of these products to general customers, Hoff, Mazor, and Faggin
actively campaigned for their announcement to the industry and helped define
a support strategy that the company could accept. Intel formally announced
the "4004" CPU in November, 1971. |
|
|
1185 |
The 4004 was designed
and built under contract for Busicom -- they owned the rights to it. Intel
acquired the rights by offering to return the $60,000 development cost and to
produce the chip at a lower cost. As the basis for the modern computer
revolution, maintaining rights on the 4004 technology appears to have been a
good investment. |
|
|
1187 |
Hoff,
Mazor, and Faggin were involved in Intel's second and third generation CPUs,
the 8008 and 8080.< |
|
|
1191 |
Dr. Federico Faggin was
born in Vicenza, Italy December 1, 1941. He graduated from Instituto
Industriale at Vicenza in 1960. He received a doctorate in physics from the
University of Padua in 1965. In 1968, he came to the US to join Fairchild in
Palo Alto where he developed the original silicon gate technology. The 4004
project brought him to Intel in 1970. In 1974 he founded Zilog, Inc. which
produced a new chip design for the fledgling personal computer industry.
After a short stint with Exxon, he co-founded Cygnet Technologies in 1982 and
Synaptics, Inc. in 1986 where he is currently president. He is a recipient of
the Marconi Fellowship and IEEE W. Wallace McDowell award. |
|
| 1906 |
1193 |
Philo Taylor Farnsworth |
|
|
Born Aug 19 1906 - Died Mar 11 1971 |
|
|
Television System |
Video |
|
Cathode-Ray Tube |
|
| 1926 |
1203 |
Farnsworth's
basic television patents covered scanning, focusing, synchronizing, contrast,
controls, and power. He also invented the first cold cathode ray tubes and
the first simple electronic microscope. He used radio waves to get direction
(later called radar) and black light for seeing at night (used in World War
II). |
|
|
1207 |
Philo
Taylor Farnsworth's electronic inventions took all of the moving parts out of
televisions and made possible today's TV industry, the TV shots from the
moon, and satellite pictures. |
|
|
1211 |
Born in Beaver, Utah,
Farnsworth, was educated in the Utah and Idaho public school systems and
while at Rigby (Idaho) High School in 1921 delved into the molecular theory
of matter, electrons and the Einstein theory. He also studied automobile
engines and chemistry. Farnsworth attended high school at Provo in the fall
of 1923 and in 1924 enrolled in Brigham Young University. He left the
university at the end of his second year due to the death of his father. In
1926 Farnsworth joined the Crocker Research Laboratories in San Francisco. At
the age of 20 he produced the first all-electronic television image. Crocker
Research Laboratories was later reorganized as Television Laboratories, Inc.,
and in May 1929 was renamed Farnsworth Television Inc., of California.During
the 1960s he worked on special-purpose TV, missiles, and the peaceful uses of
atomic energy. Before his death, he worked on a nuclear fusion process to
produce clean, virtually unlimited energy; he held two fusion energy patents.
When he died at age 64, he held more than 300 U.S. and foreign patents. He
was one of four inventors honored in September 1983 by the U.S. Postal
Service with issuance of a stamp bearing his portrait. |
|
| 1934 |
1213 |
James Fergason |
|
|
Born Jan
12 1934 |
|
|
Display Devices Utilizing Liquid Crystal Light Modulation |
Video |
|
Liquid Crystal Display |
|
| 1970 |
1223 |
James
Fergason holds a series of patents that form the foundation of the
multi-billion dollar LCD industry which has been rapidly growing since
1971. |
|
| 1970 |
1225 |
In
1970, Fergason made the first operating LCDs. Prior to this invention, LCDs
used a large amount of power, provided a limited life, and had poor visual
contrast. In 1971, the first LCDs were demonstrated publicly and
enthusiastically accepted. |
|
|
1229 |
LCD
technology, starting with quartz watches and calculators, has completely
redefined many industries, such as computer displays, medical devices,
industrial devices, and the vast array of consumer electronics. |
|
|
1233 |
Fergason was born in
Wakenda, Missouri and attended the University of Missouri. After graduating,
he formed and led the first industrial research group in liquid crystal
research while at Westinghouse Research Laboratories in Pennsylvania. There,
he invented the first practical uses of liquid crystals. He joined the Liquid
Crystal Institute at Kent State University in Ohio in the 1960s. While
Associate Director, Fergason discovered the twisted nematic field effect of
liquid crystals which forms the scientific basis of modern LCDs. Fergason,
who holds over 100 U.S. patents, currently works as an independent inventor.
Fergason, who holds over 100 U.S. patents, currently works as an independent
inventor. |
|
| 1901 |
1234 |
Enrico Fermi |
|
|
Born Sep 29 1901 - Died Nov 28 1954 |
|
|
Neutronic Reactor |
Energy |
|
Nuclear Fission |
|
| 1942 |
1244 |
While
studying the creation of artificially radioactive isotopes in the 1930s,
Enrico Fermi became the first physicist to split the atom. His later research
pioneered nuclear power generation. Fermi is considered one of the most
important architects of the nuclear age. |
|
|
1252 |
Born in Rome, Italy,
Fermi graduated from the University of Pisa in 1922, became a lecturer at the
University of Florence for two years and then a professor of theoretical
physics at Rome. In 1934 he perfected his theory of beta ray emission in
radioactivity, and went on to study the creation of artificially radioactive
isotopes through neutron bombardment. His bombardment of uranium with slow
neutrons caused reactions which were found later to be atomic fission. With
Researcher Leo Szilard, he began work, first at Columbia then at the
University of Chicago, on construction of an atomic pile which would make
possible the controlled release of nuclear energy. This was accomplished in
1942.Transferred for a time to the Los Alamos, New Mexico atomic bomb laboratory,
Fermi returned to Chicago in 1945 as a professor at the Institute for Nuclear
Studies and in the same year became a United States citizen. He was awarded
the Nobel Prize for physics in 1938 for his developments in harnessing
nuclear power. |
|
| 1866 |
1254 |
Reginald Fessenden |
|
|
Born Oct 6 1866 - Died Jul 22 1932 |
|
|
Apparatus for Signaling by Electromagnetic Waves |
Telcom |
|
Radio |
|
|
1264 |
Reginald
Fessenden is known for discovering amplitude modulation (AM) radioand
explaining its scientific principles. With this heterodyne principle, he put
into practice the idea of mixing two high frequency signals to carry the
audible low frequency of the human voice. |
|
| 1906 |
1268 |
Fessenden
became fascinated with the idea of wireless telegraphy as a childwhen he saw
Bell demonstrate his telephone. He wondered from that point on if he could
transmit voice without using wires. In 1900 he did just that transmitting his
voice with his wireless telephone. Six years later, history was made on
Christmas Eve when Fessenden transmitted the first radio broadcast from Brant
Rock Station, Massachesetts. Ships at sea heard a broadcast that included
Fessenden playing O Holy Night on the violin and reading a passage from the
Bible. |
|
|
1272 |
Born in East Bolton,
Quebec, Canada, Fessenden was well-educated when he was young. When he was
eighteen, he became headmaster at a school in Bermuda. His work subsequently
took him back to the U.S. to work with Thomas Edison and to help George
Westinghouse light the 1892 Columbian Exposition in Chicago. He then
investigated wireless radio communication with the U.S. Weather Bureau.
Fessenden held over 200 patents, including a version of microfilm and an
early form of sonar. |
|
| 1934 |
1273 |
Thomas Fogarty |
|
|
Born Feb
25 1934 |
|
|
Embolectomy Catheter |
Med |
|
Embolectomy Catheter |
|
| 1963 |
1283 |
In
1963, Thomas Fogarty received a patent for his Fogarty® balloon embolectomy
catheter, which has since become an industry standard. The device allows a
thin balloon to be inserted into a patient's artery and guided through an
occlusion. It is then inflated and withdrawn along with the blockage.
Fogarty's catheter revolutionized vascular surgery--it is still the most
widely used technique for blood clot removal--and encouraged advances for
other minimally invasive surgeries, including angioplasty. |
|
|
1291 |
Working with his
biomedical design engineers at Fogarty Research, Fogarty has developed many
balloon devices that are used in laparoscopy-assisted surgical procedures.
Other products include a minimally invasive device for breast cancer
diagnosis and therapy and a self-expanding stent-graft used to treat aortic
aneurysms less invasively to reduce trauma. A native of Cincinnati, Fogarty
attended Xavier University and then went on to the University of Cincinnati
Medical School. |
|
|
1293 |
Currently a professor of
cardiovascular surgery at the Stanford University Medical School, Fogarty is
also an active venture capitalist, funding start-up medical companies through
his firm Three Arch Partners. In 1981, he founded the Thomas Fogarty Winery,
located near San Francisco. Fogarty holds over 70 patents and has won
numerous awards |
|
| 1863 |
1295 |
Henry Ford |
|
|
Born Jul 30 1863 - Died Apr 7 1947 |
|
|
Transmission Mechanism |
Tool |
|
Automobile |
|
| 1905 |
1305 |
Pioneering
automotive engineer Henry Ford held many patents on automotive mechanisms. He
is best remembered, however, for helping devise the factory assembly approach
to production that revolutionized the auto industry by greatly reducing the
time required to assemble a car. |
|
|
1313 |
Born in Wayne County,
Michigan, Ford showed an early interest in mechanics, constructing his first
steam engine at the age of 15. In 1893 he built his first internal combustion
engine, a small one-cylinder gasoline model, and in 1896 he built his first automobile.
In June 1903 Ford helped establish Ford Motor Company. He served as president
of the company from 1906 to 1919 and from 1943 to 1945. In addition to
earning numerous patents on auto mechanisms, Ford served as a vice president
of the Society of Automotive Engineers when it was founded in 1905 to
standardize U.S. automotive parts |
|
| 1918 |
1314 |
Jay W. Forrester |
|
|
Born Jul
14 1918 |
|
|
Multicoordinate Digital Information Storage Device |
Comp |
|
Random Access Memory |
|
| 1954 |
1324 |
Jay
W. Forrester was a pioneer in early digital computer development and invented
random-access, coincident-current magnetic storage, which became the standard
memory device for digital computers. |
|
|
1332 |
Born In Climax,
Nebraska, Forrester lived on a Nebraska cattle ranch until he entered the
University of Nebraska, where he received a B.S. degree in Electrical
Engineering in 1939. Forrester received a M.S. degree from the Massachusetts
Institute of Technology in 1945. Following his work in computers, Forrester
turned his attention to societal systems. The field of system dynamics was
created in 1956 under his leadership to evaluate how alternative policies
affect growth, stability, fluctuation, and changing behavior in corporations,
cities, and countries. He is currently Germeshausen Professor at MIT, where
he directs the System Dynamics Program in the Alfred P. Sloan School of
Management. |
|
| 1913 |
1334 |
Alfred Free |
|
|
Born Apr 11 1913 - Died May 15 2000 |
|
|
Composition of Matter |
Med |
|
Glucose Detection for
Diabetes |
|
| 1950 |
1344 |
In
the mid-1940s, Alfred Free and Helen Murray were both chemists working
together in the biochemistry research group at Miles Laboratories, Inc., in
Elkhart, Indiana. Married in 1947, they continued their collaboration,
becoming two of the world’s leading experts on urinalysis.The Frees
co-authored two books: Urodynamics and Urinalysis in Laboratory Practice,
both considered notable works in the field. |
|
|
1348 |
Their
contributions include the development of dry reagents that have become the
standard in laboratory urinalysis and the more consumer-oriented
"dip-and-read" tests that first enabled diabetics to easily and
accurately monitor their blood glucose levels on their own. |
|
|
1352 |
The Frees each had a
career spanning more than 30 years at Miles Labs, now Bayer AG. Alfred Free
earned his undergraduate degree at Miami University (Ohio) and his master’s
and doctoral degrees at Western Reserve University (Ohio). Helen Free earned
her undergraduate degree at the College of Wooster (Ohio) in 1944 and a
master’s degree in management/health care administration from Central
Michigan University in 1978. |
|
|
1354 |
For their outstanding
collaborative efforts, the Frees were awarded the Laboratory Public Service
National Leadership Award in 1995. Although Alfred Free has passed away, his
spirit of invention lives on. Helen Free continues to promote science
education through programs around the world. |
|
| 1934 |
1355 |
Charon Robin Ganellin |
|
|
Born Jan
25 1934 |
|
|
Pharmacologically Active Guanidine Compounds |
Med |
|
Tagamet - Cimetidine |
|
| 1964 |
1365 |
Graham
J. Durant, John Colin Emmett, and C. Robin Ganellin led the SmithKline
Beecham Corporation's research team that discovered the H2 receptor class of
drugs, including cimetidine, which inhibits the production of stomach acid. |
|
|
1367 |
Durant,
Emmett, and Ganellin's work, begun in 1964 and done in collaboration with
Nobel laureate biologist Sir James Black, established a physiological role
for histamine in the control of gastric acid secretions-the major cause of
ulcers. |
|
|
1371 |
The
World Health Organization lists cimetidine, known by the brand name Tagamet,
as one of the world's most essential drugs for its ability to heal stomach
ulcers without surgery. |
|
|
1375 |
Ganellin was born in
London, England, and studied chemistry at Queen Mary College, London and at
the Massachusetts Institute of Technology. He is currently with SmithKline
and French professor of medicinal chemistry at University College London,
where he is also director of the Upjohn European Discovery Unit. Ganellin is
named as co-inventor on more than 100 U.S. patents. |
|
| 1901 |
1377 |
Edmund Germer |
|
|
Born Aug 24 1901 - Died Aug 10 1987 |
|
|
Discharge Device; Metal Vapor Lamp |
Home |
|
Fluorescent Lamp |
|
| 1935 |
1387 |
Germer
received the Frank P. Brown Medal from the Franklin Institute in 1954 for his
fluorescent lamp. |
|
|
1391 |
Edmund
Germer's development of the fluorescent lamp and the high-pressure
mercury-vapor lamp significantly increased the efficiency of lighting
devices, allowing for more economical lighting while producing less heat than
incandescent light. |
|
|
1395 |
Germer was born in
Berlin, the son of an accountant. He studied at the University of Berlin
during the 1920s, earning a doctorate in lighting technology. His continual
goal was to invent a better light source with higher lumen output and lower
energy consumption compared to the incandescent lamp. |
|
|
1397 |
While working so that he
might continue his studies, he co-founded the Rectron Company which was
involved in the development of inert gas-glowing cathode rectifiers. After
resigning his position as chief physicist, he became a freelance inventor
during the 1930s for companies such as Osram and Phillips. Both his
fluorescent lamp and high-pressure mercury-vapor lamp were licensed to
General Electric. |
|
|
1399 |
After
World War II, Germer was invited by Engelhardt Industries of Newark, New
Jersey to continue his research at Hanovia. In 1951, he brought his wife and
son to the United States. Between 1926 and 1955, his patents numbered 22 from
the United States and 30 from Germany for being the sole inventor and 100
more in both countries as co-inventor. |
|
| 1920 |
1400 |
Charles P. Ginsburg |
|
|
Born Jul 27 1920 - Died Apr 9 1992 |
|
|
Broad Band Magnetic Tape Systems and Method |
Elec |
|
Video Tape Recording |
|
| 1951 |
1410 |
Charles
Ginsburg led the research team at Ampex Corporation in developing the first
practical videotape recorder (VTR). The system used a rapidly rotating
recording head to apply high-frequency signals onto a reel of magnetic tape. |
|
|
1414 |
The
VTR revolutionized television broadcasting. Ginsburg led the Ampex research
team that developed a new machine that could run the tape at a much slower
rate because the recording heads rotated at high speed, allowing the
necessary high-frequency response. Recorded programs that could be edited
replaced most live broadcasts. In 1956, CBS became the first network to
employ VTR technology. |
|
|
1418 |
Born
in San Francisco, California, Ginsburg graduated with a B.A. from San Jose
State in 1948 then worked as a studio and transmitter engineer at a radio
station in the San Francisco Bay area. In 1952 he joined the Ampex
Corporation. He held the position of vice president of Advance Development at
Ampex from 1975 until his retirement in 1986. Tape recording of television
signals dates to just after World War II, when audio tape recorders were
pushed to record the very high frequency signals needed for television. These
early machines ran the tape at very high speeds-240 inches per second-to
achieve high-frequency response. |
|
| 1882 |
1420 |
Robert Hutchings Goddard |
|
|
Born Oct 5 1882 - Died Aug 10 1945 |
|
|
Control Mechanism for Rocket Apparatus |
Energy |
|
Solid Fuel Rockets |
|
| 1915 |
1430 |
Robert
Hutchings Goddard pioneered modern rocketry and space flight and founded a
whole field of science and engineering. |
|
|
1438 |
Born in Worcester,
Massachusetts, Goddard graduated from Worcester Polytechnic Institute in 1908
then became a physics instructor at Worcester Tech. At the same time he began
graduate work at Clark University, where he received his M.A. in 1910 and a
Ph.D. in 1911. Goddard was a research fellow at Princeton in 1912 and 1913
and the following year joined the faculty at Clark University, where he
became a full professor in 1919. Goddard's interest in rockets began in 1899,
when he was 17. As early as 1908 he conducted static tests with small
solid-fuel rockets at Worcester Tech, and in 1912 he developed the detailed
mathematical theory of rocket propulsion. In 1915 he proved that rocket
engines could produce thrust in a vacuum and therefore make space flight
possible. In 1916 the Smithsonian Institution provided funds for Goddard to
continue his work on solid-propellant rockets and to begin development of
liquid-fuel rockets as well. During World War I Goddard explored the military
possibilities of rockets. He succeeded in developing several types of
solid-fuel rockets to be fired from hand-held or tripod-mounted launching
tubes, which were the basis of the bazooka and other powerful rocket weapons
of World War II. Over the following two decades he produced a number of large
liquid-fuel rockets at his shop and rocket range at Roswell, New Mexico.
During World War II he was assigned by the U.S. Navy to develop
rocket-assisted takeoff of carrier planes and variable-thrust liquid-fuel
rocket motors. At the time of his death Goddard held 214 patents in rocketry. |
|
| 1800 |
1440 |
Charles Goodyear |
|
|
Born Dec 29 1800 - Died Jul 1 1860 |
|
|
Improvements in India-Rubber Fabrics |
Chem |
|
Vulcanization of Rubber |
|
| 1844 |
1450 |
Natural
or India rubber, as it was then known, was of limited usefulness to industry.
Rubber products melted in hot weather, froze and cracked in cold, and adhered
to virtually everything until the day in the mid-19th century when inventor
Charles Goodyear accidentally dropped some rubber mixed with sulfur on a hot
stove. |
|
|
1454 |
Goodyear's
discovery of what came to be known as vulcanization strengthened rubber so it
could be applied to a vast variety of industrial uses, including, eventually,
automobile tires. |
|
|
1458 |
Goodyear was born in New
Haven, Connecticut. He entered the hardware business with his father but the
venture failed in 1830. Thereafter he turned his talents to the commercial
improvement of India rubber, which, until his time, was not used much in industry
because of the adhesiveness of the surface and because of its inability to
withstand temperature extremes. After numerous experiments, in 1836 Goodyear
developed a nitric acid treatment which partially remedied these defects. The
famous vulcanizing process, patented in 1844, was to revolutionized the
rubber industry, but Goodyear was unable to profit financially from his
discovery. His numerous patents were constantly infringed, and although he
was able to establish his rights legally, he died a poor man. |
|
| 1920 |
1460 |
Gordon Gould |
|
|
Born Jul
17 1920 |
|
|
Optically Pumped Laser Amplifiers; Light Amplifiers Employing Collisions to Produce a Population Inversion |
Optics |
|
Laser |
|
| 1957 |
1470 |
Gordon
Gould coined the word laser and patented optically pumped and discharge
excited laser amplifiers now used in most industrial, commercial, and medical
applications of lasers. |
|
|
1474 |
Gould
and his assignee, Patlex Corporation, now hold the basic patents covering
optically pumped and discharge excited laser amplifiers. These lasers are
used in 80 percent of the industrial, commercial, and medical applications of
lasers. Gould also holds patents on laser uses and fiber optic
communications. |
|
| |
1478 |
Born in New York City,
Gould idolized Edison, and his ambition from childhood on was to be an
inventor. After his undergraduate years at Union College, majoring in physics
with an emphasis on optics, he went on to Yale University for graduate work
in spectroscopy. He received an M.S. in physics in 1943. During the rest of
World War II he worked at the Manhattan Project on the separation of uranium
isotopes to generate nuclear power. Following the war he continued graduate
studies in physics at Columbia University. His studies in optical
spectroscopy combined with microwave spectroscopy provided him the necessary
background for germinating his original concepts of laser technology. Gould
has said that his first ideas for the laser 'came in a flash' one night in
1957. He wrote these down in a notebook entitled 'Some rough calculations on
the feasibility of a LASER: Light Amplification by Stimulated Emission of
Radiation,' the first use of this acronym for the now familiar name. However,
because he misunderstood an attorney's advice, he didn't file for a patent
until 1959, after other laser researchers had already filed. Since Gould's
original patent application contained a number of different inventions it was
put through a series of five separate interferences by the Patent Office.
Thus, it was not until 20 years later, in 1977, that the first of Gould's
basic laser patents was issued. |
|
| 1919 |
1480 |
Wilson Greatbatch |
|
|
Born Sep 6
1919 |
|
|
Medical Cardiac Pacemaker |
Med |
|
Implantable Pacemaker |
|
| 1960 |
1490 |
Wilson
Greatbatch invented the cardiac pacemaker, an innovation selected in 1983 by
the National Society of Professional Engineers as one of the two major
engineering contributions to society during the previous 50 years. Greatbatch
has established a series of companies to manufacture or license his
inventions, including Greatbatch Enterprises, which produces most of the
world's pacemaker batteries. |
|
|
1494 |
His
original pacemaker patent resulted in the first implantable cardiac
pacemaker, which has led to heart patient survival rates comparable to that
of a healthy population of similar age. |
|
|
1498 |
Born in Buffalo, New
York, Greatbatch received his preliminary education at public schools in West
Seneca, New York. In 1936 he entered military service and served in the
Atlantic and Pacific theaters during World War II. He was honorably
discharged with the rating of aviation chief radioman in 1945. He attended
Cornell University and graduated with a B.E.E. in electrical engineering in
1950. Greatbatch received a master's from the State University of New York at
Buffalo in 1957 and was awarded honorary doctor's degrees from Houghton
College in 1970 and State University of New York at Buffalo in 1984. Although
trained as an electrical engineer, Greatbatch has primarily studied
interdisciplinary areas combining engineering with medical electronics, agricultural
genetics, the electrochemistry of pacemaker batteries, and the
electrochemical polarization of physiological electrodes. |
|
| 1918 |
1499 |
Leonard Michael Greene |
|
|
Born Jun 8
1918 |
|
|
Stall Warning Device for Airplanes |
Tool |
|
Aircraft Stall Warning
Device |
|
| 1947 |
1509 |
Leonard
Michael Greene has patented dozens of inventions in aviation technology,
including the device that warns pilots when a deadly aerodynamic stall is
imminent. |
|
|
1513 |
At
the time Greene invented the stall-warning device, more than half of all
aviation deaths were caused by the stall/spin. A Saturday Evening Post
article (Oct. 25, 1947) said of Greene's innovation, 'It may be the greatest
life saver since invention of the parachute.' |
|
|
1517 |
Born in New York City,
Greene received his B.S. and M.S. degrees from City University of New York.
In 1977 he was awarded an honorary doctorate by Pace University. During World
War II, Greene joined the Grumman Aircraft Corporation as an aerodynamicist and
engineering test pilot. Witness to an aircraft accident caused by stall, he
realized the pilot could not tell when the angle of airflow over the wing had
become excessive. The stall-warning device Greene then invented brought him
his first of more than 100 patents to date, 60 of which cover aviation
technology. To build his invention, Greene established the Safe Flight
Instrument Corporation in White Plains, New York, in 1946. Other Greene
inventions added to the product line included a wind-shear warning system
that warns a pilot if an aircraft enters a dangerous microburst and provides
escape guidance. Today the firm supplies unique air safety and performance
technology to virtually every major air carrier, the U.S. Armed Forces, and
to aircraft manufacturers worldwide. Since 1974, Greene has also been
president of the Institute for Socioeconomic Studies in White Plains, New
York. He has written a book entitled Free Enterprise Without Poverty, and
articles on socioeconomics. |
|
| 1863 |
1519 |
Charles Martin Hall |
|
|
Born Dec 6 1863 - Died Dec 27 1914 |
|
|
Manufacture of Aluminum |
Ind |
|
Aluminum |
|
| 1886 |
1529 |
Charles
Martin Hall discovered the electrolytic method of producing aluminum cheaply,
bringing the metal into wide commercial use. As a young chemist experimenting
in a woodshed, Charles Hall invented a method for extracting pure aluminum
from its ore. |
|
|
1533 |
Understanding
aluminum's potential, Hall founded an industry that contributed to many
others, particularly the manufacture of aircraft and automobiles. |
|
|
1535 |
By
1914, Hall's process had brought the cost of aluminum down to 18 cents a
pound. Aluminum, once a precious metal used for fine jewelry, is now
inexpensive enough for everyday packaging. |
|
|
1539 |
Born in Thompson, Ohio,
Hall was a student at Oberlin (Ohio) College when he became interested in
producing aluminum inexpensively. He continued to use the college laboratory
after his graduation in 1885 and discovered his method eight months later.
After several unsuccessful attempts to interest financial backers, he
obtained the support of Alfred E. Hunt and a few of his friends. Together
they formed the Pittsburgh Reduction Company (later the Aluminum Company of
America). In 1890 Hall became company vice president. Hall became a generous
benefactor of his alma mater, bequeathing Oberlin more than $5 million. |
|
| 1919 |
1540 |
Robert N. Hall |
|
|
Born Dec
25 1919 |
|
|
Asymmetrically Conductive Device and Method of Making the Same |
Elec |
|
Magnetron |
|
| 1962 |
1550 |
Robert
Hall invented the version of the magnetron that operates most microwave
ovens, the semiconductor laser found in compact disk players, and power
rectifiers that greatly improved power transmission efficiency. |
|
|
1554 |
His
basic rectifier structure, with silicon replacing the germanium, is used
today for AC-to-DC power conversion in electric locomotives and high-voltage
DC electrical transmission. In 1962 Hall invented the semiconductor injection
laser, a device now used in all compact disk players and laser printers, and
most optical fiber communications systems. |
|
|
1558 |
Born in New Haven,
Connecticut, Hall earned a B.S. in Physics at CalTech in 1942 and a Ph.D. in
physics at CalTech in 1948. He then returned to the General Electric Research
and Development Center in Schenectady, New York, where he had worked during
WorldWar II on continuous wave magnetrons to jam enemy radar. These were
later incorporated into microwave ovens. After the war Hall worked first on
transistors, succeeding in making ingots of never-before-available intrinsic
germanium from which devices could be fabricated. A 'chance observation'
while measuring the electrical properties of one of these ingots led him to
his discovery of alloyed p-n junctions, the fundamental elements of power
rectifiers and some transistors. During the 1970s energy crisis Hall worked
on photovoltaics and solar cells. |
|
| 1908 |
1560 |
William Edward Hanford |
|
|
Born Dec 9 1908 - Died Jan 27 1996 |
|
|
Process for Making Polymeric Products and for Modifying Polymeric Products |
Chem |
|
Polyurethane |
|
| 1942 |
1570 |
William
Edward Hanford and Donald Fletcher Holmes invented the process for making the
multipurpose material polyurethane.They teamed up at E.I. du Pont de Nemours
& Company, receiving their polyurethane patent in 1942. The process they
developed reacts polyols and related hydroxy compounds with di-isocyanates.
This method is the basis today for the manufacture of all polyurethanes. |
|
|
1574 |
Flexible
polyurethane foam is used as an upholstery material, and the rigid foam is
commonly used as a heat-insulating material in homes, offices, and
refrigerators. Polyurethane is also used in life-saving artificial hearts,
safety padding in modern automobiles, and in carpeting. |
|
|
1578 |
Born
in Bristol, Pennsylvania, Hanford received his B.S. from the Philadelphia
College of Pharmacy in 1930. Born in Woodbury, New Jersey, Holmes received
his B.S. in Organic Chemistry from Amherst College in 1931. Both received
master's and doctorates from the University of Illinois. Holmes remained with
Du Pont, working in the textile divisions until just before his death on
October 13, 1980. Hanford left Du Pont in 1942 to join GAF Corporation. In
1946 he joined M.W. Kellogg, where he became director of research and served
on the board of directors. In 1957 he became research and development vice
president at Olin Industries. He and his son organized Water-Sure Inc. in
1968 specializing in equipment for sanitizing water supplies in Third World
countries. Hanford died January 27, 1996. |
|
| 1885 |
1579 |
Elizabeth Lee Hazen |
|
|
Born Aug 24 1885 - Died Jun 24 1975 |
|
|
Nystatin and Method of Producing It |
Med |
|
Nystatin (Antifungal /
Antibiotic) |
|
| 1954 |
1589 |
The world's first useful
antifungal antibiotic, nystatin, was developed through a long-distance
scientific collaboration of Elizabeth Lee Hazen in New York City and Rachel
Fuller Brown in Albany. |
|
|
1591 |
Working as researchers
for the New York State Department of Health, Elizabeth Lee Hazen in New York
City and Rachel Fuller Brown in Albany shared tests and samples through the
U.S. mail. To Hazen's single-minded pursuit of an antifungal antibiotic,
Brown added the skills needed to identify, characterize, and purify the
various substances produced by culturing bacteria found in hundreds of soil
samples. |
|
|
1593 |
The
antibiotic they developed, named 'nystatin' for the New York State Department
of Health, was first introduced in practical form in 1954 following Food and
Drug Administration approval. |
|
|
1597 |
Not only did it cure
many disfiguring and disabling fungal infections of the skin, mouth, throat,
and intestinal tract, but it could be combined with antibacterial drugs to
balance their effects. |
|
|
1599 |
Uses
for nystatin have been as varied as treating Dutch elm disease to rescuing
water-damaged works of art from molds. |
|
|
1603 |
Brown and Hazen donated
all nystatin royalties-more than $13 million by the time the patent
expired-to academic science through the nonprofit Research Corporation. |
|
|
1605 |
Born
in rural Mississippi, Hazen was orphaned at the age of three and raised by
relatives. She earned a B.S. at the Mississippi State College for Women then
taught school and served as an Army diagnostic laboratory technician during
World War I. After the war she won an advanced degree in bacteriology from
Columbia University, becoming one of its first women doctoral
candidates. |
|
| 1913 |
1606 |
William R. Hewlett |
|
|
Born May 20 1913 - Died Jan 12 2001 |
|
|
Variable Frequency Oscillation Generator |
Telcom |
|
Audio Signals |
|
| 1938 |
1616 |
Cofounder
of the electronics giant Hewlett-Packard, William R. Hewlett invented the
audio oscillator, the first practical method of generating audio signals
needed in communications, geophysics, medicine, and defense work. |
|
|
1620 |
Until
Hewlett's invention, scientists and researchers had no simple and accurate
source for low-frequency signals essential to their work. One of
Hewlett-Packard's first customers was Walt Disney Studios, which ordered
eight of the Model 200B oscillators to use in producing the soundtrack for
the film 'Fantasia.' |
|
|
1624 |
Hewlett was born in Ann
Arbor, Michigan. His father was a professor of medicine at the University of
Michigan and, later, at Stanford University. The younger Hewlett attended
Stanford, receiving a B.A. in 1934 and an electrical engineering degree in
1939; his master's degree was awarded by the Massachusetts Institute of
Technology in 1936. Hewlett met partner Dave Packard while both were in
undergraduate school at Stanford. While in graduate school Hewlett developed
the design for the product that later launched the Hewlett-Packard
company-the model HP200A audio oscillator. Hewlett served as an Army officer
during World War II and was named vice-president of the newly incorporated
Hewlett-Packard upon his return to civilian life. He served as president of
H-P from 1964 to 1977 and as chief executive officer from 1969 to 1978. He is
now director emeritus of the board of directors. In 1989 an old garage in
Palo Alto, the first home of Hewlett-Packard, became a California historical
landmark. The state dedicated it as the birthplace of Silicon Valley. |
|
| 1902 |
1626 |
Rene Alphonse Higonnet |
|
|
Born Apr 5 1902 - Died Oct 13 1983 |
|
|
Photo Composing Machine |
Photo |
|
Photo Composing Machine |
|
| 1953 |
1636 |
Louis Marius Moyroud and
Rene Alphonse Higonnet developed the first practical phototypesetting
machine. Born in Moirans, Isere, France, Moyroud attended engineering school
from 1929 to 1936 and graduated as an engineer from Ecole Nationale
Superieure des Arts et Metiers of Cluny, France. He served in the military as
a second lieutenant from 1936 to 1938 and as a first lieutenant in 1939 and
1940. He joined the LMT Laboratories, a subsidiary in Paris of ITT, in 1941
and left in 1946 to spend all of his time on photocomposition. Moyroud and
Higonnet first demonstrated their first phototypesetting machine, the
Lumitype-later known as the Photon-in September 1946 and introduced it to
America in 1948. The Photon was further refined under the direction of the
Graphic Arts Research Foundations. The first book to be composed by the
Photon was printed in 1953, titled The Wonderful World of Insects. Composed
without the use of metal type, it might someday rank in the historical
importance of printing with the first book printed from moveable type, the
Gutenberg Bible. In recent years, Moyroud has been instrumental in the
development of the Euorcat Series of phototypesetting machines marketed in
Europe by Bobst Graphics. Fellow communications engineer Higonnet was born in
Valence, Drome, France. The son of a teacher, he was educated at the Lycée de
Tournon and the Electrical Engineering School of Grenoble University. He was
granted a scholarship by the International Institute of Education in New York
in 1922, went to Carleton College in Minnesota for one year, and subsequently
spent one term at the Harvard Engineering School. He was an engineer with the
Materiel Telephonique, a French subsidiary of ITT, from 1924 to 1948. He then
became a transmission engineer and worked on long distance cables in
Paris-Strasbourg, London-Brussels, and Vienna-Budapest. He was also
associated with the Patent and Information Department of ITT. |
|
| 1915 |
1638 |
James Hillier |
|
|
Born Aug
22 1915 |
|
|
Electron Lens Correction Device |
Tool |
|
Electron Microscope |
|
|
1648 |
Physicist
James Hillier is recognized for his contributions to the development of the
electron microscope. Hillier's work on the electron microscope began in
college. He and a fellow graduate student built a model in 1937 that
magnified 7,000 times. |
|
|
1652 |
A
generation later more than 2,000 electron microscopes were in use in the
laboratories of the world, some capable of magnifying 2 million times. |
|
|
1656 |
Born
in Brantford in Ontario, Canada, he received his B.S. in 1937 and Ph.D. in
physics in 1941 from the University of Toronto. Hillier was a research
engineer at RCA Laboratories from 1940 to 1953, at which time he joined
Melpar Inc. as research director. In 1954 he returned to RCA, where he became
the general manager of RCA Laboratories in Princeton, New Jersey in 1957.
When he retired in 1978, Hillier was executive vice president and senior
scientist of RCA Labs. Hillier holds 40 patents. |
|
| 1937 |
1658 |
Marcian E. (Ted) Hoff |
|
|
Born Oct
28 1937 |
|
|
Memory System for a Multi-Chip Digital Computer |
Comp |
|
CPU |
|
| 1969 |
1668 |
In the late 1960s, many
articles had discussed the possibility of a computer on a chip. However, all
concluded that the integrated circuit technology was not yet ready. Ted Hoff
was the first to recognize that Intel's new silicon-gated MOS technology might
make a single-chip CPU possible if a sufficiently simple architecture could
be developed. Hoff developed such an architecture with just over 2000
transistors. |
|
|
1670 |
In 1969, the Japanese
calculator manufacturer Busicom asked Intel to complete the design and
manufacture of a new set of chips. Ted Hoff was assigned to work with
Busicom's engineers. Hoff realized that the Busicom's 12-chip design --
separate chips for keyboard scanning, display control, printer control, and
other functions -- could not meet the cost objectives for the project. He
proposed an alternate architecture in which a single-chip general-purpose
computer central processor (CPU) would be programmed to perform most of the
calculator functions. Busicom accepted the Intel proposal. |
|
|
1672 |
Further refinements in
architecture and logic design were made by Stanley Mazor and Federico Faggin
and the chip was brought to silicon reality by Faggin. The first working CPU
was delivered to Busicom in February, 1971. This single chip had as much computing
power as the first electronic computer, ENIAC (1946), which filled a room. |
|
|
1674 |
Although there was an
initial reluctance on the part of Intel marketing to undertake the support
and sale of these products to general customers, Hoff, Mazor, and Faggin
actively campaigned for their announcement to the industry and helped define
a support strategy that the company could accept. Intel formally announced
the "4004" CPU in November, 1971. |
|
|
1676 |
The 4004 was designed
and built under contract for Busicom -- they owned the rights to it. Intel
acquired the rights by offering to return the $60,000 development cost and to
produce the chip at a lower cost. As the basis for the modern computer
revolution, maintaining rights on the 4004 technology appears to have been a
good investment. |
|
|
1678 |
Hoff,
Mazor, and Faggin were involved in Intel's second and third generation CPUs,
the 8008 and 8080. |
|
|
1682 |
One
of the most important developments of the last half of the 20th century has
been the microprocessor. It is found in virtually every automobile, medical
device, and computer in the modern world. From its inception in 1969, the
microprocessor industry has grown to hundreds of millions of units per
year. |
|
|
1686 |
Dr.
Marcian Edward "Ted" Hoff, Jr. was born October 28, 1937 in
Rochester, New York. He received a BEE (1958) from Rensselaer Polytechnic
Institute in Troy, NY. During the summers away from college he worked for
General Railway Signal Company in Rochester where he made developments that
produced his first two patents. He attended Stanford as a National Science
Foundation Fellow and received a MS (1959) and Ph.D. (1962) in electrical
engineering. He joined Intel in 1962. In 1980, he was named the first Intel
Fellow, the highest technical position in the company. He spent a brief time
as VP for Technology with Atari in the early 1980s and is currently VP and
Chief Technical Officer with Teklicon, Inc. Other honors include the Stuart
Ballantine Medal from the Franklin Institute. |
|
| 1919 |
1688 |
Paul Hogan |
|
|
Born Aug 7
1919 |
|
|
Polymers and Production Thereof |
Chem |
|
HDPE and Polypropylene
Plastics |
|
| 1951 |
1698 |
Paul
Hogan and fellow research chemist Robert Banks were working for Phillips
Petroleum in 1951 when they invented crystalline polypropylene and
high-density polyethylene (HDPE). Together, the plastics were marketed under
the brand name Marlex®, which has since made its way into every corner of
American life. Banks and Hogan began working together in 1946. Low-density
polyethylene already existed, but manufacturing it required extremely high
pressures. While working on another project to improve yields of high-octane
gasoline--the two chemists discovered crystalline polypropylene. They
experimented further and found they were able to produce HDPE in a low
pressure situation. Their discoveries launched a multi-billion dollar
industry. |
|
|
1702 |
Today,
over 55 billion pounds of HDPE are manufactured each year. Plastic products
include gallon milk jugs, laundry baskets, indoor-outdoor carpeting, and
artificial turf. |
|
|
1706 |
Hogan
grew up in Lowes, Kentucky and received a degree in chemistry and physics
from Murray State University. During World War II, he served as an instructor
at a preflight school. He joined Phillips in 1944, working there until his
1985 retirement. His numerous awards include the Pioneer Chemist Award and
the Society of Chemical Industry's Perkin Medal. Hogan holds 52 U.S.
patents. |
|
| 1860 |
1708 |
Herman Hollerith |
|
|
Born Feb 29 1860 - Died Nov 17 1929 |
|
|
Art of Compiling Statistics; Apparatus for Compiling Statistics |
Comp |
|
Punch Card Tabulator |
|
| 1884 |
1718 |
Herman Hollerith
invented and developed a punch-card tabulation machine system that
revolutionized statistical computation. |
|
|
1720 |
Hollerith began working
on the tabulating system during his days at MIT, filing for the first patent
in 1884. He developed a hand-fed 'press' that sensed the holes in punched
cards; a wire would pass through the holes into a cup of mercury beneath the
card closing the electrical circuit. This process triggered mechanical
counters and sorter bins and tabulated the appropriate data. |
|
|
1722 |
Hollerith's
system-including punch, tabulator, and sorter-allowed the official 1890
population count to be tallied in six months, and in another two years all
the census data was completed and defined; the cost was $5 million below the
forecasts and saved more than two years' time. |
|
|
1724 |
His later machines
mechanized the card-feeding process, added numbers, and sorted cards, in
addition to merely counting data. |
|
|
1726 |
In 1896 Hollerith
founded the Tabulating Machine Company, forerunner of Computer Tabulating
Recording Company (CTR). He served as a consulting engineer with CTR until
retiring in 1921. |
|
|
1728 |
In
1924 CTR changed its name to IBM - the International Business Machines
Corporation. |
|
|
1732 |
Herman
Hollerith invented and developed a punch-card tabulation machine system that
revolutionized statistical computation. |
|
|
1736 |
Born in Buffalo, New
York, the son of German immigrants, Hollerith enrolled in the City College of
New York at age 15 and graduated from the Columbia School of Mines with
distinction at the age of 19. |
|
|
1738 |
His
first job was with the U.S. Census effort of 1880. Hollerith successively
taught mechanical engineering at the Massachusetts Institute of Technology
and worked for the U.S. Patent Office. The young engineer developed an
electrically actuated brake system for the railroads, but the Westinghouse
steam-actuated brake prevailed. |
|
| 1910 |
1740 |
Donald Fletcher Holmes |
|
|
Born Sep 29 1910 - Died Oct 13 1980 |
|
|
Process for Making Polymeric Products and for Modifying Polymeric Products |
Chem |
|
Polyurethane |
|
| 1942 |
1750 |
William Edward Hanford
and Donald Fletcher Holmes invented the process for making the multipurpose
material polyurethane. |
|
|
1752 |
Holmes teamed up with
Edward Hanford at E.I. du Pont de Nemours & Company, receiving their
polyurethane patent in 1942. The process they developed reacts polyols and
related hydroxy compounds with di-isocyanates. This method is the basis today
for the manufacture of all polyurethanes. |
|
|
1754 |
They received their
polyurethane patent in 1942. |
|
|
1758 |
This method is the basis
today for the manufacture of all polyurethanes. |
|
|
1760 |
Flexible
polyurethane foam is used as an upholstery material, and the rigid foam is
commonly used as a heat-insulating material in homes, offices, and
refrigerators. Polyurethane is also used in life-saving artificial hearts,
safety padding in modern automobiles, and in carpeting. |
|
|
1764 |
Born
in Woodbury, New Jersey, Holmes received his B.S. in Organic Chemistry from
Amherst College in 1931. He received a master's and doctorate from the
University of Illinois. Holmes teamed up with Edward Hanford at E.I. du Pont
de Nemours & Company, receiving their polyurethane patent in 1942. Holmes
remained with Du Pont, working in the textile divisions until just before his
death on October 13, 1980. |
|
| 1892 |
1767 |
Eugene Houdry |
|
|
Born Apr 18 1892 - Died Jul 18 1962 |
|
|
Process for the Manufacture of Liquid Fuels |
Energy |
|
Catalytic Cracking |
|
| 1939 |
1777 |
Eugene Houdry discovered
a revolutionary method for cracking low-grade crude oil into high-test
gasoline, developed a catalytic process for producing synthetic rubber in
World War II, and invented the catalytic converter for cleaning automobile
exhaust. |
|
|
1779 |
After
the war Houdry expanded on his work that had yielded a catalytic process for
producing gasoline from coal and invented a method for catalytically cracking
low-grade crude oil. |
|
|
1781 |
In
1930 Houdry moved to the United States, where Vacuum Oil and the Sun Oil
Company provided significant financial backing for his work and his own
Houdry Process Corporation. When World War II broke out in 1939 he returned
briefly to his native country to help the French government adapt his
catalytic cracking process to the production of high-octane aviation
gasoline. |
|
|
1785 |
The
process revolutionized the production of gasoline and enabled refining
companies to produce twice as much high-quality fuel per barrel of oil than
the previous distillation method. By 1942, 90 percent of the aviation fuel
produced in France, Great Britain, and the United States was catalytically
cracked. |
|
|
1789 |
Born in Domont, France,
the son of a wealthy structural steel manufacturer, Houdry studied mechanical
engineering at the Ecole des Arts et Metiers in Paris. He worked first in his
father's business then left to serve in the French Army as a lieutenant in
the tank corps in World War I, where he was seriously injured. Houdry
contributed to the WWII effort by developing a single-step butane
dehydrogenation process for producing synthetic rubber. |
|
|
1791 |
After the war Houdry
formed a new company called Oxy-Catalyst and turned his attention to reducing
the health risks from increasing amount of automobile and industrial
exhausts. His catalytic muffler, patented in 1962, greatly reduced the amount
of carbon dioxide and unburned hydrocarbons. Today, the device is standard on
all American cars. |
|
|
1793 |
Houdry received more than 100
patents. |
|
| 1903 |
1796 |
J. Franklin Hyde |
|
|
Born Mar 11 1903 - Died Oct 11 1999 |
|
|
Method of Making a Transparent Article of Silica |
Optics |
|
Transparent Silica |
|
| 1943 |
1806 |
A periodic chart that
Franklin Hyde once designed had the element silicon placed directly in the
center - not surprising, since Hyde’s work with glass-related technology and
his role in launching the silicone industry all derive from silicon. |
|
|
1808 |
Silicone
fluids resist decomposition from heat and water, so they are used often as
lubricants, hydraulic fluids and water repellents. Hyde worked extensively on
silicone rubbers, which are extremely resistant to aging, sunlight, moisture,
temperature extremes and many chemicals. They are used often as caulks,
gaskets, electrical insulators, O-rings and heat-resistant seals. |
|
|
1812 |
Hyde’s ultra-pure glass
has many uses, including spacecraft windows, telescopes, and precision lenses
for manufacturing equipment. It also provided the bases for the semiconductor
and fiber optics industries. |
|
|
1814 |
Hyde
also discovered how to convert silicon-containing compounds into silicones.
Now, almost all major industries rely on the silicone industry to supply a
wide range of important materials. |
|
|
1818 |
After completing
postdoctoral work at Harvard University in 1930, Hyde worked at Corning
Glass, attempting to create a pure, stable glass that could be used in
devices like telescopes. Working with liquid silicon tetrachloride, Hyde
discovered how to process it into a fused silica glass – the first new way of
making glass in more than 3,000 years. |
|
|
1820 |
Hyde’s
work led to the 1943 founding of Dow Corning Corporation, a joint venture
between Corning Glass Works and The Dow Chemical Company formed specifically
to produce silicone products. Midland, Michigan-based Dow Corning today has
26 manufacturing locations around the world. |
|
| 1899 |
1822 |
Percy Lavon Julian |
|
|
Born Apr 11 1899 - Died Apr 19 1975 |
|
|
Preparation of Cortisone |
Med |
|
Cortisone |
|
| 1935 |
1832 |
Percy
Lavon Julian synthesized physostigmine for treatment of glaucoma and
cortisone for the treatment of rheumatoid arthritis. |
|
|
1836 |
His
synthesis of cortisone reduced the price of cortisone from hundreds of
dollars per drop for natural cortisone to a few cents per gram. |
|
|
1840 |
Born in Montgomery,
Alabama, the grandson of a former slave, Julian had limited schooling because
Montgomery provided no public education for blacks after the eighth grade. He
entered DePauw University in Greencastle, Indiana, as a 'sub-freshman' and,
though ill-prepared, graduated in 1920 as class valedictorian with Phi Beta
Kappa honors. |
|
|
1842 |
Advised against pursuing
a graduate education because of his race, Julian went to Fisk University to
teach chemistry. In 1923, with an Austin Fellowship in Chemistry, he earned a
master's degree from Harvard University. |
|
|
1844 |
After teaching at West
Virginia State College and Howard University, Julian received his Ph.D. in
organic chemistry from the University of Vienna in 1931. He returned to
DePauw University, where his international reputation was established in 1935
by synthesizing physostigmine, a drug treatment for glaucoma, from the
calabar bean. |
|
|
1846 |
Despite scientific
acclaim, DePauw University denied him a professorship because of his race.
During the next 17 years, Julian was director of research at the Glidden
Company, a paint and varnish manufacturer. He developed a commercial process
for isolating and preparing soya bean protein, which could be used to coat
and size paper, to create cold water paints, and to size textiles. During
World War II Julian used soya protein to produce 'AeroFoam'-a substance that
suffocates gasoline and oil fires. His other inventions included a
fire-extinguishing foam for gasoline and oil fires. |
|
|
1848 |
Julian
went on to synthesize the female and male hormones, progesterone and
testosterone, by extracting sterols from soybean oil. He was noted most for
his synthesis of cortisone, used in the treatment of rheumatoid arthritis and
other inflammatory conditions. |
|
| 1941 |
1851 |
Donald B. Keck |
|
|
Born Jan 2
1941 |
|
|
Fused Silica Optical Waveguide; Method of Producing Optical Waveguide Fibers |
Optics |
|
Optical Fibers |
|
| 1970 |
1861 |
Corning Glass
researchers Robert Maurer, Donald Keck, and Peter Schultz made optical fiber,
capable of carrying 65,000 times more information than conventional copper
wire, a practical reality. |
|
|
1863 |
In 1970 Maurer, Keck,
and Schultz designed and produced the first optical fiber with optical losses
low enough for wide use in telecommunications. Previously, the limiting
factor was the amount of light lost during transmission. The key was
restricting light loss to 20 decibels per kilometer (at least one percent of
the light entering a fiber remains after traveling one kilometer). Scientists
around the world had worked on the problem for years to no avail. |
|
|
1865 |
Optical fiber is the
foundation for the global, multimedia telecommunications network of tomorrow.
More than 90 percent of the U.S. long-distance traffic is already carried
over optical fiber; more than 25 million kilometers has been installed,
virtually all of it using the original design of Maurer, Keck and Schultz. |
|
|
1871 |
The
discovery by the group at Corning was quickly recognized as a breakthrough,
paving the way for the commercialization of optical fiber and literally
creating a revolution in telecommunications. |
|
|
1875 |
Born in Lansing,
Michigan, Keck received his B.S. in 1962, M.S. in 1964, and a Ph.D. in 1967,
all from Michigan State University. He joined Corning as a research physicist
in 1968; he currently is director of opto-electronic research |
|
| 1876 |
1880 |
Charles Franklin Kettering |
|
|
Born Aug 29 1876 - Died Nov 25 1958 |
|
|
Engine Starting Device; Engine Starting, Lighting and Ignition System |
Ind |
|
Automobile |
|
| 1915 |
1890 |
Charles
Franklin Kettering invented the first electrical ignition system and the
self-starter for automobile engines and the first practical engine-driven
generator. |
|
|
1898 |
Born in an Ohio
farmhouse, Kettering graduated from Ohio State University in 1904 as an
engineer then joined the National Cash Register Company, where he oversaw
development of the electrically operated cash register, among other products. |
|
|
1900 |
In 1909 he left NCR and,
with businessman Edward A. Deeds, set up the Dayton Engineering Laboratories
Company or Delco, where he invented his most significant engine devices.
Kettering's engine-driven generator, named the 'Delco,' provided electricity
on millions of farms. |
|
|
1902 |
In 1916 Kettering sold
his company to General Motors. At G.M. he set up and directed a central
research laboratory and stayed for 31 years, until his retirement in 1947.
The lab developed the lightweight diesel engine that made the diesel
locomotive possible, the refrigerant Freon, four-wheel brakes, safety glass,
and many other items. |
|
|
1904 |
Kettering
was the holder of some 140 patents. Along with G.M. President Alfred Sloan,
he established the Sloan-Kettering Institute for Cancer Research. |
|
| 1923 |
1906 |
Jack S. Kilby |
|
|
Born Nov 8
1923 |
|
|
Miniaturized Electronic Circuits |
Comp |
|
Integrated Circuit |
|
| 1959 |
1916 |
In
1959 electrical engineer Jack S. Kilby invented the monolithic integrated
circuit, which is still widely used in electronic systems. In 1958 he joined
Texas Instruments Inc. in Dallas where he was responsible for integrated
circuit development and applications. Within a year he had invented the
monolithic integrated circuit. |
|
|
1920 |
Widely used in electronic
systems. |
|
|
1924 |
Born in Jefferson City,
Missouri, Kilby received a B.S.E.E. degree from the University of Illinois in
1947 and an M.S.E.E. from the University of Wisconsin in 1950. |
|
|
1926 |
From
1947 to 1958 he was responsible for the design and development of thick film
integrated circuits at the Centralab Division of Globe Union Inc. in
Milwaukee. In 1970 Kilby began a leave of absence from the Texas Instruments
company to work as an individual inventor. Much of his recent work has been
directed toward the development of a novel solar energy system. |
|
| 1911 |
1928 |
Willem J. Kolff |
|
|
Born Feb
14 1911 |
|
|
Soft Shell Mushroom Shaped Heart |
Med |
|
Artificial Heart |
|
| 1948 |
1938 |
Medical researcher Willem
J. Kolff invented the artificial kidney dialysis machine. |
|
|
1940 |
The
artificial kidney dialysis machine Kolff invented has been perfected through
a series of improvements so that there are an estimated 55,000 people in the
U.S. with end-stage renal disease that are being kept alive by this invention
or a subsequent modification of it. |
|
|
1944 |
There
are an estimated 55,000 people in the U.S. with end-stage renal disease that
are being kept alive by this invention or a subsequent modification of
it. |
|
|
1948 |
Born in the Netherlands,
Kolff received his M.D. in Leiden in 1938 and a Ph.D. degree from the
University of Groningen in Holland in 1946. He holds nine honorary
doctorates. Since 1934 Kolff has held numerous medical research positions in
the Netherlands and the United States. From 1950 to 1967 he was affiliated
with the Cleveland Clinic Foundation, ultimately as scientific director of
the Artificial Organs Program. Since 1967 he has been professor of surgery
and head of the Division of Artificial Organs at the School of Medicine of
the University of Utah. |
|
|
1950 |
Kolff
never patented his original artificial kidney dialysis machine, but after
coming to the United States he headed a team which invented and tested an
artificial heart. |
|
| 1889 |
1952 |
William Kroll |
|
|
Born Nov 24 1889 - Died Mar 30 1973 |
|
|
Method for Manufacturing Titanium and Alloys Thereof |
Ind |
|
Titanium |
|
| 1932 |
1962 |
In
1932, Luxembourg native William Kroll invented a process to produce metallic
titanium. He combined titanium tetrachloride with calcium to produce ductile
titanium. By 1938, Kroll had produced 50 pounds of titanium using his
process, later named the "Kroll Process". Titanium in its pure form
had been discovered by William Gregor in 1791, but it was difficult to obtain
from its natural state and, when heated, it yielded a useless substance. |
|
|
1966 |
Titanium
is the fourth most abundant structural metal on Earth and today remains vital
in the production of jet engines and piping systems. It is also used in
artificial hips and knees and is a key ingredient in golf clubs, watches and
marine equpment. |
|
|
1970 |
While researching the
newly processed titanium, Kroll realized its strength and anti-corrosion
potential. With the rise of Nazi power surrounding him, Kroll decided to take
his metallurgic findings to the United States, ending up at the U.S. bureau
of Mines. At the bureau, Kroll was able to apply the same process to
zirconium. By 1945, Kroll had rolled out his first zirconium strip. By 1948,
the U.S. Atomic Energy Commission became interested in using zirconium for
structural elements of reactors. |
|
|
1972 |
Zirconium
can be found in jet engines, radar equipment, surgical instruments and fiber
optics. Zirconium's optimum nuclear and corrosion properties made it a key
ingredient in the construction of the first atomic submarine reactor. |
|
| 1923 |
1974 |
Stephanie Louise Kwolek |
|
|
Born Jul
31 1923 |
|
|
Optically Anisotropic Aromatic Polyamide Dopes and Oriented Fibers Therefrom |
Home |
|
Kevlar |
|
| 1965 |
1984 |
Kwolek's earliest work
pioneered low-temperature processes for the preparation of condensation
polymers and resulted in hundreds of new polymers, including Kapton polyimide
film, and Nomex aramid polymer and fiber. |
|
|
1986 |
As
she carried out experiments to make stronger and stiffer fibers, she
discovered an amazing branch of polymer science-liquid crystalline
polymers. |
|
|
1990 |
Thousands
of police can attest to the value of Stephanie Kwolek's breakthrough research
in para-aramid fibers. The fruits of her inventiveness can be found in
mooring ropes, fiber-optic cables, aircraft parts, canoes, and-most important
to police-in lightweight bullet-resistant vests. |
|
|
1994 |
Born in New Kensington,
Pennsylvania, Kwolek received her B.S. in chemistry from the Carnegie
Institute of Technology in 1946. That same year she went to work as a chemist
at the Buffalo, New York, site of E.I. du Pont de Nemours & Company. |
|
|
1996 |
'I really wanted to
study medicine,' Kwolek recalled, 'but I didn't have enough money to enter
medical school. I joined Du Pont as a temporary measure, but the work turned
out to be so interesting that I stayed on.' The most famous product of her
discovery was Kevlar, a polymer fiber five times stronger than the same
weight of steel. The material of choice for bullet-resistant vests and many
other applications generates hundreds of millions of dollars in sales
worldwide each year. |
|
|
1998 |
Kwolek moved to the
Pioneering Research Laboratory at Du Pont's Experimental Station in
Wilmington, Delaware, in 1950. She retired in 1986 as a research associate
but continues to consult for Du Pont and serves on the committees of the
National Research Council and the National Academy of Sciences. |
|
|
2000 |
Her
name appears on 17 patents issued between 1961 and 1986. |
|
| 1909 |
2002 |
Edwin Herbert Land |
|
|
Born May 7 1909 - Died Mar 1 1991 |
|
|
Photographic Product Comprising a Rupturable Container Carrying a Photographic Processing Liquid |
Photo |
|
Photography |
|
| 1965 |
2012 |
Physicist,
manufacturing executive, and inventor Edwin Herbert Land developed the first
modern polarizers for light, a sequence of subsequent polarizers, and
theories and practices for applications of polarized light. |
|
|
2020 |
Born
in Connecticut, Land was educated at Norwich Free Academy and Harvard
University. During his lifetime he was awarded six honorary doctorates. Land
spent nearly all of his life engaged in research and development of optical
devices. During World War II he developed optical and other systems for
military use and proposed the retinex theory for mechanism of color
perception, in addition to creating cameras and films that gave instantaneous
dry photographs in black and white and color. But he is best remembered for
the instant-photo film and cameras made famous by the company he founded,
Polaroid Corporation. |
|
| 1881 |
2023 |
Irving Langmuir |
|
|
Born Jan 31 1881 - Died Aug 16 1957 |
|
|
Incandescent Electric Lamp |
Elec |
|
Electric Lamp |
|
| 1912 |
2033 |
Irving
Langmuir's work led to two major inventions: the high-vacuum electron tube
and the gas-filled incandescent lamp. |
|
|
2041 |
Born in Brooklyn, New
York, Langmuir was educated in the public schools of New York and Paris,
France. He earned a B.S. from the Columbia University School of Mines and a
Ph.D. in chemistry from the University of Gottingen in Germany, where he
studied under Nobel laureate Walther Nernst. |
|
|
2043 |
His first professional
position was as an instructor of chemistry at Stevens Institute in Hoboken,
New Jersey, from 1906 to 1909. From there he moved to the General Electric
Research Laboratory in Schenectady, New York. What began as a summer job
blossomed into a career with the company that lasted the rest of his life. |
|
|
2045 |
While at G.E., Langmuir
received 63 patents and was awarded the 1932 Nobel Prize for Chemistry, as
well as numerous other honors. His initial research at General Electric
involved low-pressure chemical reactions and the study of the emission of
electrons by hot filaments in a vacuum. This work led directly to the
invention of the high-vacuum electron tube in 1912 and the gas-filled
incandescent lamp in 1913. |
|
|
2047 |
Langmuir was responsible
for many basic scientific discoveries which played a fundamental role in the
development of commercial electrical products as well as in military and
general scientific areas. His contributions to atomic theory and the
understanding of atomic structure threw light upon the meaning of isotopes.
His experiments with oil films on water resulted in the development of
two-dimensional or surface chemistry. |
|
|
2049 |
In
World War II, Langmuir was one of the key advisers in the national defense
and wartime scientific research programs, contributing to the development of
radar for use by the British and United States armed forces. |
|
| 1901 |
2052 |
Ernest Orlando Lawrence |
|
|
Born Aug 8 1901 - Died Aug 27 1958 |
|
|
Method and Apparatus for the Acceleration of Ions |
Chem |
|
Cyclotron |
|
| 1930 |
2062 |
Ernest
Orlando Lawrence invented the cyclotron, a device that greatly increased the
speed with which projectiles could be hurled at atomic nuclei. |
|
|
2066 |
Without
it, and related instruments, most of the advancements in nuclear physics made
in the last 50 years could not have occurred. |
|
|
2070 |
Born in Canton, South
Dakota, Lawrence graduated from the University of South Dakota in 1922 then
went to Yale University, where he obtained his Ph.D. in physics in 1925. In
1927 he joined the faculty of the University of California. Lawrence built
his first cyclotron in 1930. Unlike other devices, which attempted to give
charged particles one tremendous push, Lawrence's device moved protons in a
widening spiral, imparting more energy to them with each spin, until they
finally shot out of the instrument. |
|
|
2072 |
In
1939 Lawrence was rewarded for his work with the Nobel Prize in physics. |
|
| 1902 |
2074 |
William P. Lear |
|
|
Born Jun 26 1902 - Died May 14 1978 |
|
|
Radio Apparatus |
Telcom |
|
Car Radio |
|
| 1967 |
2084 |
Though
his name is most often associated with corporate jet airplanes, William Lear
earlier made his mark in car radios and by inventing the eight-track tape
player. |
|
|
2092 |
Born in Hannibal,
Missouri, Lear attended public school in Chicago through the eighth grade. At
age 16 he joined the Navy, where he learned radio electronics. Following
World War I he took up flying. |
|
|
2094 |
An early Lear design, a
practical car radio, launched the Motorola Company. RCA purchased a radio
amplifier design of Lear's, a universal unit usable in their entire line.
Lear designed the eight-track player in the 1960s. |
|
|
2096 |
Lear began designing
navigational aids for aircraft In the 1930s and under the names Lear Corp.
and LearAvia Corporation filled more than $100 million in defense orders
during World War II. After the war, he developed a lightweight automatic
pilot. In 1962 he sold his interest in Lear, Inc. to form Learjet, which
became the leading supplier of corporate jets within five years. |
|
|
2098 |
After Learjet he devoted
his energies to development of an antipollution steam engine. |
|
|
2100 |
In
the 1970s, his aircraft designs included the Canadair Challenger and the Lear
Fan, an airplane built entirely from composites. Lear died during development
of the Lear Fan, and although there were a number of advance orders it was
never put into production. |
|
| 1926 |
2102 |
Robert S. Ledley |
|
|
Born Jun
28 1926 |
|
|
Diagnostic X-Ray System |
Med |
|
CAT Scan |
|
| 1974 |
2112 |
Robert S. Ledley
invented the whole-body CT (computerized tomographic) diagnostic X-ray
scanner. |
|
|
2114 |
The
ACTA Scanner set the fundamental design for modern CT scanners, including the
first use of the convolution method for CT-image reconstruction, the first
high-resolution digital TV display for medical imaging, and the tilting
gantry. |
|
|
2118 |
Ledley
used ACTA to revolutionize diagnostic medicine. He was the first to do
medical imaging and three-dimensional reconstructions and the first to use CT
in radiation therapy planning for cancer patients and in the diagnosis of
bone diseases. |
|
|
2122 |
Born in New York City,
Ledley earned a D.D.S. from New York University in 1948 and an M.A. from
Columbia University a year later. During the next 20 years he served in a
variety of academic and research positions at the National Institute of
Standards and Technology (formerly National Bureau of Standards), Johns
Hopkins University, and George Washington University, before becoming a
professor of physiology and biophysics and of radiology at the Georgetown
University Medical Center. With more than 20 patents to his name, Ledley is
best known for developing the ACTA (Automatic Computerized Transverse Axial)
diagnostic X-ray scanner, the first whole-body computerized tomography (CT)
machine. In addition to the ACTA scanner, Ledley patented the image processor
(originally called the Texture Analysis Computer or TEXAC). He wrote the
first comprehensive textbook for engineers on digital computer engineering.
He also developed the computational methods in Boolean algebra, used in
digital circuit design. Ledley wrote the seminal paper for the field of
Medical Informatics on computer use to aid in medical diagnosis. |
|
|
2124 |
Ledley
is editor-in-chief of four reviewed scientific journals and has been the
president and research director of the National Biomedical Research
Foundation since 1960. |
|
| 1927 |
2126 |
Theodore Harold Maiman |
|
|
Born Jul
11 1927 |
|
|
Ruby Laser Systems |
Tool |
|
Laser |
|
| 1960 |
2136 |
Physicist Theodore Harold
Maiman invented the first operable laser. |
|
|
2138 |
While
employed at Hughes Research Laboratories as a section head in 1960, he
developed, demonstrated, and patented a laser using a pink ruby medium, for
which he gained worldwide recognition. |
|
|
2146 |
Born
in Los Angeles, California, Maiman in his teens earned college money by
repairing electrical appliances and radios. He attended the University of
Colorado and received a B.S. in engineering physics in 1949 then went on to
do graduate work at Stanford University, where he received an M.S. in
electrical engineering in 1951 and a Ph.D. in physics in 1955. In 1962 Maiman
founded his own company, Korad Corporation, devoted to the research,
development, and manufacture of lasers. He formed Maiman Associates in 1968
after selling Korad to Union Carbide Corporation. He joined TRW in 1976 and
has been responsible for directing the management of technology and the
establishment of new high-technology ventures. He is also a director of
Control Laser Corporation and a member of the Advisory Board of Industrial
Research Magazine. |
|
| 1874 |
2148 |
Guglielmo Marconi |
|
|
Born Apr 25 1874 - Died Jul 20 1937 |
|
|
Transmitting Electrical Signals |
Telcom |
|
Radio |
|
| 1895 |
2158 |
In 1895 Italian inventor
Guglielmo Marconi built the equipment and transmitted electrical signals
through the air from one end of his house to the other, and then from the
house to the garden. These experiments were, in effect, the dawn of practical
wireless telegraphy or radio. |
|
|
2160 |
Following the successes
of his experiments at home, Marconi became obsessed with the idea of sending
messages across the Atlantic. He built a transmitter, 100 times more powerful
than any previous station, at Poldhu, on the southwest tip of England, and in
November 1901 installed a receiving station at St. John's Newfoundland. |
|
|
2162 |
On
December 12, 1901, he received signals from across the ocean. News of this
achievement spread around the world, and he was acclaimed by outstanding
scientists, including Thomas A. Edison. |
|
|
2170 |
Marconi was born in
Bologna, Italy.His father was Italian, his mother, Irish. He was educated
first in Bologna and later in Florence. Then he went to the technical school
in Leghorn, where he studied physics. |
|
|
2172 |
Marconi
received many honors including the Nobel Prize for Physics in 1909. He was
sent as a delegate to the Peace Conference in Paris in 1919, in which
capacity he signed the peace treaties with Austria and Bulgaria. |
|
| 1910 |
2175 |
Homer Z. Martin |
|
|
Born Nov 20 1910 - Died Sep 1 1993 |
|
|
Method of and Apparatus For Contacting Solids And Gases |
Chem |
|
Catalytic Cracking |
|
| 1939 |
2185 |
Homer Martin was with
Exxon Research & Engineering Co. (ER&E) when the company was looking
for a way to increase the yield of high-octane gasoline from crude oil.
Martin and three of his colleagues devised fluid catalytic cracking,
considered one of the most important chemical engineering achievements of the
20th century. |
|
|
2187 |
During
today’s fluid cat cracking, a boxcar load of catalyst is mixed with a stream
of oil vapor every minute. This mixture, behaving like a fluid, that moves
continuously through the system as cracking reactions take place. Fluid cat
cracking currently takes place in over 370 units around the world, producing
almost one half billion gallons of gasoline daily. Its technology continues
to evolve as cleaner high-performance fuels are explored. |
|
|
2191 |
Considered
essential to the refinery, fluid cat cracking produces gasoline as well as
heating oil, fuel oil, propane, butane, and chemical feedstocks that are
instrumental in producing other products such as plastics, synthetic rubbers
and fabrics, and cosmestics. |
|
|
2195 |
Martin
was born in Chicago, Illinois. He received his B.S. in chemical engineering
from Armour Institute Tech and his M.S. and Ph.D. from the University of
Michigan. After joining ER&E in 1937, he became one of its most prolific
inventors, with 82 patents upon his retirement in 1973. |
|
| 1924 |
2197 |
Robert D. Maurer |
|
|
Born Jul
20 1924 |
|
|
Fused Silica Optical Waveguide; Method of Producing Optical Waveguide Fibers |
Optics |
|
Optical Fibers |
|
| 1970 |
2207 |
Corning Glass
researchers Robert Maurer, Donald Keck, and Peter Schultz made optical fiber,
capable of carrying 65,000 times more information than conventional copper
wire, a practical reality. |
|
|
2209 |
In 1970 Maurer, Keck,
and Schultz designed and produced the first optical fiber with optical losses
low enough for wide use in telecommunications. Previously, the limiting
factor was the amount of light lost during transmission. The key was
restricting light loss to 20 decibels per kilometer (at least one percent of
the light entering a fiber remains after traveling one kilometer). Scientists
around the world had worked on the problem for years to no avail. |
|
|
2211 |
Optical
fiber is the foundation for the global, multimedia telecommunications network
of tomorrow. More than 90 percent of the U.S. long-distance traffic is
already carried over optical fiber; more than 25 million kilometers has been
installed, virtually all of it using the original design of Maurer, Keck and
Schultz. |
|
|
2215 |
The
discovery by the group at Corning was quickly recognized as a breakthrough,
paving the way for the commercialization of optical fiber and literally
creating a revolution in telecommunications. |
|
|
2219 |
Maurer
was born in St. Louis. He earned a B.S. from the University of Arkansas in
1948 and a Ph.D. from the Massachusetts Institute of Technology in 1951. He
joined the Corning Glass Works in 1952 and retired in 1989 as a research
fellow. |
|
| 1941 |
2221 |
Stanley Mazor |
|
|
Born Oct
22 1941 |
|
|
Memory System for a Multi-Chip Digital Computer |
Comp |
|
CPU |
|
| 1971 |
2231 |
In the late 1960s, many
articles had discussed the possibility of a computer on a chip. However, all
concluded that the integrated circuit technology was not yet ready. Ted Hoff
was the first to recognize that Intel's new silicon-gated MOS technology might
make a single-chip CPU possible if a sufficiently simple architecture could
be developed. Hoff developed such an architecture with just over 2000
transistors. |
|
|
2233 |
In 1969, the Japanese
calculator manufacturer Busicom asked Intel to complete the design and
manufacture of a new set of chips. Ted Hoff was assigned to work with
Busicom's engineers. Hoff realized that the Busicom's 12-chip design --
separate chips for keyboard scanning, display control, printer control, and
other functions -- could not meet the cost objectives for the project. He
proposed an alternate architecture in which a single-chip general-purpose
computer central processor (CPU) would be programmed to perform most of the
calculator functions. Busicom accepted the Intel proposal. |
|
|
2235 |
Further refinements in
architecture and logic design were made by Stanley Mazor and Federico Faggin
and the chip was brought to silicon reality by Faggin. The first working CPU
was delivered to Busicom in February, 1971. This single chip had as much computing
power as the first electronic computer, ENIAC (1946), which filled a room. |
|
|
2237 |
Although there was an
initial reluctance on the part of Intel marketing to undertake the support
and sale of these products to general customers, Hoff, Mazor, and Faggin
actively campaigned for their announcement to the industry and helped define
a support strategy that the company could accept. Intel formally announced
the "4004" CPU in November, 1971. |
|
|
2239 |
The 4004 was designed
and built under contract for Busicom -- they owned the rights to it. Intel
acquired the rights by offering to return the $60,000 development cost and to
produce the chip at a lower cost. As the basis for the moderncomputer
revolution, maintaining rights on the 4004 technology appears to have been a
good investment. |
|
|
2241 |
Hoff,
Mazor, and Faggin were involved in Intel's second and third generation CPUs,
the 8008 and 8080. |
|
|
2245 |
One
of the most important developments of the last half of the 20th century has
been the microprocessor. It is found in virtually every automobile, medical
device, and computer in the modern world. From its inception in 1969, the
microprocessor industry has grown to hundreds of millions of units per
year. |
|
|
2249 |
Mr.
Stanley Mazor was born in Chicago on October 22, 1941. He studied mathematics
and programming at San Francisco State University. He joined Fairchild
Semiconductor in 1964 as a programmer and then a computer designer in the
Digital Research Department where he shares patents on the Symbol computer.
In 1969, he joined Intel. In 1977, he began his teaching career in Intel's
Technical Training group, and later taught classes at Stanford, University of
Santa Clara, KTH in Stockholm and Stellenbosch, S.A. In 1984 he was at
Silicon Compiler Systems. He co-authored a book on chip design language while
at Synopsys 1988-1994. He was invited to present "The History of the
Microcomputer" at the 1995 IEEE Proceedings. He is currently the
Training Director at BEA Systems. |
|
| 1809 |
2251 |
Cyrus Hall McCormick |
|
|
Born Feb 15 1809 - Died May 13 1884 |
|
|
Improvement in Machines for Reaping Small Grain |
Ag |
|
Mechanical Reaper |
|
| 1834 |
2261 |
Cyrus
Hall McCormick invented the mechanical reaper, which combined all the steps
that earlier harvesting machines had performed separately. |
|
|
2263 |
Patenting
his invention in 1834, after Obed Hussey had announced (1833) the
construction of a reaper of his own, McCormick started to manufacture the
machine on the family estate in 1837. Six years later he began to license its
manufacture in other parts of the country. In 1847 he set up a factory in
Chicago, founding what eventually became one of the greatest industrial
establishments in the United States. |
|
|
2267 |
His
time-saving invention allowed farmers to more than double their crop size and
spurred innovations in farm machinery. |
|
|
2271 |
Born
in Rockbridge County, Virginia, Cyrus McCormick derived his interest in
invention from his father, a Virginia landowner who patented several improved
farming implements and worked without success for many years to perfect a
mechanical reaper. In July 1831 McCormick succeeded where his father had
failed, producing a model reaper with all the essential components of later
commercial machines. An astute businessman, McCormick increased his sales
with door-to-door canvassing and written guarantees for his ready-to-assemble
machinery. McCormick amassed a large fortune and invested widely in later
years in railroad and mining enterprises. |
|
| 1844 |
2273 |
Elijah McCoy |
|
|
Born May 2 1844 - Died Oct 10 1929 |
|
|
Improvement in Lubricators for Steam-Engines |
Ind |
|
Automatic Engine
Lubricator |
|
| 1872 |
2283 |
Elijah
McCoy received his first patent for an automatic lubricating device in 1872.
Previously, engines had to be stopped before necessary lubrication could be
applied. McCoy's invention allowed engines to be lubricated while they ran,
saving precious time and money. |
|
|
2291 |
McCoy's parents were
slaves who escaped from Kentucky to Canada. McCoy was born in Canada, later
moving with his family to Ypsilanti, Michigan. When he was fifteen, his
parents sent him to school in Scotland. There, he studied mechanical
engineering, a field that had interested him from the time he was
young.Returning home, McCoy was unable to find work as a mechanical engineer,
so he went to work for the Michigan Central Railroad as a fireman. His duties
included lubricating engine parts. Engines needed frequent lubrication, and
each time, the trains had to be stopped and started, an inefficient process.
McCoy was convinced there was a better way and invented his automatic
lubricator. |
|
|
2293 |
McCoy
continued to create improvements on his device, and soon, long distance
locomotives, transatlantic ships, and factory machines were using his
lubricating invention. His reputation spread, and users of heavy equipment
were wary of buying cheap substitutes. As a result, they often asked for
"the real |
|
| 1854 |
2296 |
Ottmar Mergenthaler |
|
|
Born May 10 1854 - Died Oct 28 1899 |
|
|
Machine for Producing Printing Bars |
Ind |
|
Linotype |
|
| 1886 |
2306 |
Ottmar Mergenthaler's
invention of the linotype composing machine in 1886 is regarded as the
greatest advance in printing since the development of moveable type 400 years
earlier. |
|
|
2308 |
Mergenthaler's machine
enabled one operator to be machinist, type-setter, justifier, typefounder,
and type-distributor. |
|
|
2310 |
Since
the machine was first used in 1886 by the New York Tribune, great
improvements on its design have been made. Probably more than 1,500 separate
patents have been taken out in connection with it. |
|
|
2314 |
Regarded
as the greatest advance in printing since the development of moveable type
400 years earlier. |
|
|
2318 |
Born in Germany,
Mergenthaler was trained as a watch and clockmaker. He arrived in Baltimore
in 1872 and took a job in a machine shop, eventually working his way up into
a partnership. |
|
|
2320 |
At
the age of 32 he designed and built his first linotype machine. With it, the
two operations of setting and casting type in leaden lines were performed
simply by touching the keys of a board similar to the keyboard of a
typewriter. |
|
| 1923 |
2322 |
Irving Millman |
|
|
Born May
23 1923 |
|
|
Vaccine Against Viral Hepatitis and Process; Process of Viral Diagnosis and Reagent |
Med |
|
Vaccine for Hepatitis B |
|
| 1971 |
2332 |
In 1963, Baruch Blumberg
discovered an antigen that detected the presence of hepatitis B in blood
samples. Hepatitis B is a potentially fatal disease often transmitted through
blood transfusions. This hepatitis antigen, 'the Australia Antigen,' was
found frequently in the blood serum of viral hepatitis sufferers. The antigen
was named for an aborigine blood sample that reacted with an antibody in the
serum of an American hemophilia patient. Working with Blumberg,
microbiologist Irving Millman developed a test that identified hepatitis B in
blood samples. The blood test screened out carriers of this infectious
disease, and after blood banks began using the test in 1971, hepatitis B
after blood transfusions decreased by 25 percent. The test also became the
first method for screening blood donations for the hepatitis B virus. |
|
|
2334 |
Together,
Blumberg and Millman developed a vaccine against the virus. |
|
|
2338 |
This
vaccine protects people exposed to hepatitis B from infection and has been a
dministered to millions, particularly in Asia and Africa. Since hepatitis B
is an unknown factor associated with the development of liver cancer, the
vaccine was the first against a major form of cancer. |
|
|
2342 |
Irving Millman was born
in New York City. He received a B.S. in 1948 from City College in New York,
an M.S. in 1951 from the University of Kentucky, and a Ph.D. in 1954 from the
Northwestern University Medical School, where he was appointed assistant professor.
He joined Fox in 1967 after having previously held positions with Armour
& Company, the Public Health Research Institute of the City of New York
Inc., and the Merck Institute for Therapeutic Research. |
|
|
2344 |
He
is an adjunct professor of biology at Hahnemann University in Philadelphia.
He has been a member of the New York Academy of Sciences, the American
Association for the Advancement of Science, and the American Society of
Microbiology and is a fellow of the American Academy of Microbiology. |
|
| 1950 |
2346 |
Dennis Moeller |
|
|
Born Apr
28 1950 |
|
|
Microcomputer System with Bus Control Means for Peripheral Processing Devices |
Comp |
|
Peripherals |
|
| 1980 |
2356 |
Dennis
Moeller and Mark Dean together created a microcomputer system with bus
control means for peripheral processing devices. The bus serves as the
backbone of the computer by connecting its brain--the central processing
unit--with its limbs, the keyboard, monitor, printer, as well as any other
devices. Today, this technology is called the ----. |
|
|
2360 |
The
bus serves as the backbone of the computer by connecting its brain--the
central processing unit--with its limbs, the keyboard, monitor, printer, as
well as any other devices. |
|
|
2364 |
Born in St. Louis,
Missouri, Moeller received his BS and his MS in Electrical Engineering at the
University of Missouri in Columbia. In 1974 he began working for IBM on
semi-conductor manufacturing. Four years later, he started working on the
Series 1 mini-computer printer family, and from 1982 through 1984, he worked
on the PCAT project team. Since 1984 he has worked on numerous PC-related
research and development projects. |
|
|
2366 |
Currently
he is a senior technical staff member in the IBM Consumer Division which
produces the Aptiva line of home computers. He holds 25 patents in PC system
designs and PC printers. |
|
| 1939 |
2368 |
Bryan B. Molloy |
|
|
Born Mar
30 1939 |
|
|
Aryloxyphenylpropylamines |
Med |
|
Prozac |
|
| 1986 |
2378 |
Bryan
Molloy and Klaus Schmiegel co-invented a class of aryloxyphenylpropylamines,
which includes the active ingredient in Prozac®, the most widely used
antidepressant, which has been prescribed for over 35 million people.
Introduced by Eli Lilly & Co. in the U.S. in 1988, Prozac represented a
new class of antidepressants called selective serotonin reuptake
inhibitors. |
|
|
2380 |
The
search by Molloy and the chemistry team at Eli Lilly for an effective
antidepressant led them to synthesize many new compounds. After many
failures, they tested a group of compounds called aryloxyphenylpropylamines.
One of these compounds, fluoxetine hydrochloride, was found to be highly
selective, affecting only the neurotransmitter serotonin. Years of
development and testing finally led to approval of fluoxetine hydrochloride
for marketing. |
|
|
2384 |
Prozac
treats depression with fewer side effects than previous antidepressants and
has been prescribed for over 35 million people. |
|
|
2388 |
Molloy
was born and grew up in Scotland. After he graduated with his B.S. and Ph.D.
in chemistry from the University of St. Andrews, Molloy did postdoctoral work
in the U.S. and England before joining Eli Lilly in 1966 as a senior organic
chemist. Molloy has published over 100 papers and acquired over 30 patents
while at Eli Lilly. He became a Lilly Research Fellow in 1983. |
|
| 1791 |
2390 |
Samuel F. B. Morse |
|
|
Born Apr 27 1791 - Died Apr 2 1872 |
|
|
Improvement in the Mode of Communicating Information by Signals by the Application of Electro-Magnetism |
Telcom |
|
Telegraph |
|
| 1844 |
2400 |
Morse
developed 'lightning wires' and 'Morse code,' an electronic alphabet that
could carry messages. The patent was applied for in 1840. A line was
constructed between Baltimore and Washington and the first message, sent on
May 24,1844, was 'What hath God wrought!' |
|
|
2404 |
In
1861 the two coasts of the United States were linked by telegraph. |
|
|
2408 |
Samuel F. B. Morse, once
a portrait painter, turned to inventing to make his fortune. Morse had little
training in electricity but realized that pulses of electrical current could
convey information over wires. |
|
|
2410 |
Born in Charlestown,
Massachusetts, the eldest child of the Reverend Jedidiah Morse and his wife,
Elizabeth Ann Breese, Samuel Morse attended Phillips Academy in Andover,
Massachusetts, and entered Yale College in 1805, graduating in 1810. |
|
|
2412 |
Morse
took out three patents on pumps in 1817 with his brother, Sidney Edwards
Morse. Samuel Morse's interest in telegraphy began in 1832, and the elements
of a relay system were worked out late in 1835. The equipment was gradually
improved and was demonstrated in 1837. To support himself later in life Morse
was largely dependent on dividends from telegraph companies.In 1858 several
European countries combined to pay a gratuity of 400,000 francs as
compensation for their use of his system. |
|
| 1899 |
2414 |
Andrew J. Moyer |
|
|
Born Nov 30 1899 - Died Feb 17 1959 |
|
|
Method for Production of Penicillin |
Med |
|
Penicillin |
|
| 1944 |
2424 |
Andrew J. Moyer's
discoveries provided the foundation for the industrial production of
penicillin. |
|
|
2426 |
The potential of using
penicillin to treat wounded soldiers was immediately recognized in World War
II. However the concept of antibiotics was new, and a practical method for
large-scale production was not available. Treatments required from 1-2
million Oxford units of the substance. The urgency of finding a method for
mass-producing penicillin led to international cooperation. |
|
|
2428 |
In the United States,
the task was assigned to Moyer, who found that by culturing the Penicillium
mold in a culture broth comprising corn steep liquor and lactose, penicillin
yields could be increased many fold. This was the first known use of corn
steep liquor for growing microorganisms. |
|
|
2430 |
Moyer
also discovered that with this improved medium, the fermentation could be
conducted with continuous shaking, thereby further enhancing the yields and
production rate. |
|
|
2434 |
These discoveries led to
industrial penicillin production, which saved thousands of lives during the
war. |
|
|
2436 |
Moyer's
work also provided a model for the development of all other antibiotic
fermentations. Corn steep liquor is still used in the commercial fermentation
processes for making penicillin and many other antibiotics. Moyer contributed
to 10 U.S. patents. |
|
|
2441 |
Born in Star City,
Indiana, Moyer received his A.B. degree from Wabash College in 1922, studied
at the University of Wisconsin from 1922 to 1923, and received a M.S. from
North Dakota Agricultural College in 1925. In 1929 he was awarded his Ph.D.
in plant pathology from the University of Maryland. |
|
|
2443 |
Moyer
was employed as a mycologist with the U.S. Department of Agriculture, Bureau
of Chemistry and Soils, from 1929 until 1940 then worked as a microbiologist
at the USDA Northern Regional Research Laboratory in Peoria, Illinois, until
his retirement in 1957. |
|
| 1914 |
2446 |
Louis Marius Moyroud |
|
|
Born Feb
16 1914 |
|
|
Photo Composing Machine |
Photo |
|
Photo Composing Machine |
|
| 1953 |
2456 |
Louis Marius Moyroud and
Rene Alphonse Higonnet developed the first practical phototypesetting
machine. |
|
|
2458 |
Moyroud and Higonnet
first demonstrated their first phototypesetting machine, the Lumitype-later
known as the Photon-in September 1946 and introduced it to America in 1948.
The Photon was further refined under the direction of the Graphic Arts
Research Foundations. |
|
|
2460 |
The
first book to be composed by the Photon was printed in 1953, titled The
Wonderful World of Insects. |
|
|
2464 |
Composed
without the use of metal type, it might someday rank in the historical
importance of printing with the first book printed from moveable type, the
Gutenberg Bible. |
|
|
2468 |
Born
in Moirans, Isere, France, Moyroud attended engineering school from 1929 to
1936 and graduated as an engineer from Ecole Nationale Superieure des Arts et
Metiers of Cluny, France. He served in the military as a second lieutenant
from 1936 to 1938 and as a first lieutenant in 1939 and 1940. He joined the
LMT Laboratories, a subsidiary in Paris of ITT, in 1941 and left in 1946 to
spend all of his time on photocomposition. In recent years, Moyroud has been
instrumental in the development of the Euorcat Series of phototypesetting
machines marketed in Europe by Bobst Graphics. |
|
| 1944 |
2470 |
Kary Mullis |
|
|
Born Dec
28 1944 |
|
|
Process for Amplifying Nucleic Acid Sequences |
Chem |
|
Polymerase Chain Reacton |
|
| 1989 |
2480 |
The
polymerase chain reaction, which was devised by Kary Mullis, has
revolutionized DNA technology. PCR amplifies specific DNA sequences from very
small amounts of complex genetic material. The amplification produces an
almost unlimited number of highly purified DNA molecules suitable for
analysis or manipulation. PCR has allowed screening for genetic and
infectious diseases. Analysis of DNAs from different populations, including
DNA from extinct species, has allowed the reconstruction of phylogenetic trees
including primates and humans. PCR is essential to forensics and paternity
testing. |
|
|
2484 |
It
has had a major impact on molecular biology, medicine, forensics, molecular
paleontology, and many related fields. |
|
|
2488 |
Mullis
was born in Lenoir, N. Carolina and grew up in Columbia, S. Carolina. He
received a B.S. from Georgia Tech and a Ph.D. from the University of
California at Berkeley. While working for Cetus Corporation, he invented PCR,
which immediately spread to laboratories around the world where DNA chemistry
was performed. PCR technology has grown into a several billion dollar a year
industry. For his work, Mullis received the Japan Prize and the Nobel Prize
for chemistry, both in 1993. |
|
| 1898 |
2490 |
Eger V. Murphree |
|
|
Born Nov 3 1898 - Died Oct 29 1962 |
|
|
Method of and Apparatus for Contacting Solids and Gases |
Chem |
|
Catalytic Cracking |
|
| 1939 |
2500 |
Eger Murphree, former
president of Exxon Research & Engineering Co. (ER&E), was one of four
Exxon inventors who created the fluid catalytic cracking process. |
|
|
2502 |
When
ER&E’s’s first commercial cat cracking facility went on-line in 1942, the
U.S. had just entered World War II and was facing a shortage of high-octane
aviation gasoline. |
|
|
2506 |
This
new process allowed the U.S. petroleum industry to increase output of
aviation fuel dramatically over the next three years. Fluid cat cracking also
aided the rapid buildup of butadiene production. Butadiene was needed for
ER&E’s process for making synthetic butyl rubber, a new technology vital
to the Allied war effort. |
|
|
2510 |
Murphree was born in
Bayonne, New Jersey, moving as a youngster to Kentucky. At Kentucky
University, he graduated with undergraduate degrees in chemistry and
mathematics in 1920, and then with a master’s degree in chemistry in 1921.
After teaching high school and working for several years, in 1930 he joined
what was then Standard Oil of New Jersey. From 1947 to 1962, he served as
president. |
|
|
2512 |
Murphree,
who was a member of the committee that organized the Manhattan Project, was
widely recognized as a leader in the fields of synthetic toluene, butadiene
and hydrocarbon synthesis, fluid cat cracking, fluid hydroforming, and fluid
coking. |
|
| 1878 |
2514 |
Julius Nieuwland |
|
|
Born Feb 14 1878 - Died Jun 11 1936 |
|
|
Vinyl Derivatives of Acetylene and Method of Preparing the Same |
Chem |
|
Synthetic Rubber |
|
| 1932 |
2524 |
Rev.
Julius Nieuwland, C.S.C., was the inventor of the first synthetic rubber,
neoprene, manufactured by the DuPont Company. His work with acetylene also
led him into a collaboration with scientists from DuPont. Working with them,
he found that if monovinylacetylene were treated with hydrogen chloride and
the resulting chloroprene polymerized, neoprene would result. Eventually,
neoprene was put on the market in 1932 by DuPont under the brand name
Duprene. |
|
|
2528 |
Neoprene
was considered superior to rubber in many ways such as in its resistance to
sunlight, abrasion, and temperature extremes. These properties made it
popular in many industries. For instance, neoprene is favored for electrical
cable insulation, telephone house-to-house wiring, many moulded, extruded,
and sheet products, rug backings, and roofing. |
|
|
2532 |
Nieuwland
was born of Flemish parents in Hansbeke, Belgium and immigrated as a
youngster with his family to South Bend, Indiana. Nieuwland was a professor
at the University of Notre Dame and a priest of the Congregation of the Holy
Cross. He graduated from Notre Dame in 1899, studied for the priesthood and
was ordained in 1903, and received his Ph.D. from Catholic University in
1904. He taught botany for a number of years at Notre Dame, and in 1918 he
became a professor of organic chemistry. During this time, he worked with
acetylene; his discovery of a reaction between acetylene and arsenic
trichloride eventually led to the development of the poison gas lewisiteused
in World War I. |
|
| 1833 |
2534 |
Alfred Nobel |
|
|
Born Oct 21 1833 - Died Dec 10 1896 |
|
|
Improved Explosive Compounds |
Energy |
|
Dynamite |
|
| 1865 |
2544 |
Alfred Nobel, the
inventor of dynamite, was also a great industrialist. In 1863, Nobel
developed the Nobel patent detonator, which detonated nitroglycerin using a
strong shock rather than heat. In 1865, the Nobel Company built the first
factory for producing nitroglycerin. This led to the establishment of many
factories around the world. |
|
|
2546 |
Nitroglycerin
in its fluid state is very volatile. Nobel recognized this, and eventually
patented dynamite, a combination of nitroglycerin absorbed by a porous
substance. This gave him an easily handled, solid yet malleable explosive. |
|
|
2550 |
Mining,
railroad building, and other construction became safer, more efficient, and
cheaper. |
|
|
2554 |
Born
in Stockholm, Sweden, Nobel moved with his family as a youngster to St.
Petersburg where he was tutored privately by leading university professors.
After the Crimean War, the family returned to Sweden. Nobel developed many
improvements in explosives, and he held 355 patents in different countries in
electrochemistry, optics, biology, and physiology. Upon his death, his will
provided that the bulk of his fortune go to a fund that would award prizes
annually for advancements in Physics, Chemistry, Physiology or Medicine,
Literature, and Peace. |
|
| 1927 |
2556 |
Robert N. Noyce |
|
|
Born Dec 12 1927 - Died Jun 3 1990 |
|
|
Semiconductor Device-and-Lead Structure |
Comp |
|
Integrated Circuit |
|
| 1959 |
2566 |
Robert
N. Noyce, cofounder of Intel Corporation, was one of the pioneers of
semiconductor development. |
|
|
2574 |
Born in Iowa, he
received a B.A. from Grinnell College (Iowa) in 1949 and a Ph.D. in physical
electronics from the Massachusetts Institute of Technology in 1953. He did
research at Philco Corporation until 1956, when he joined Shockley
Semiconductor Laboratory in Palo Alto, California, to work on transistor
technology. |
|
|
2576 |
As research director of
Fairchild Semiconductor, he was responsible for initial development of the
firm's silicon mesa and planar transistor product lines. In 1957 Noyce
cofounded the Fairchild Semiconductor Corporation in Mountain View,
California. He was research director until early 1959 when he became vice
president and general manager. |
|
|
2578 |
In July 1968 he
cofounded Intel Corp. with Gordon E. Moore, who had also been a cofounder of
Fairchild Semiconductor and a member of the Shockley laboratory staff. Noyce
served as president of Intel until 1975 and chairman of the board from 1975
to 1979. |
|
|
2580 |
Noyce
held 16 patents for semiconductor devices, methods, and structures. |
|
| 1926 |
2582 |
Kenneth H. Olsen |
|
|
Born Feb
20 1926 |
|
|
Magnetic Core Memory |
Comp |
|
Magnetic Core Memory |
|
| 1957 |
2592 |
Kenneth
H. Olsen, described by Fortune magazine in 1986 as the 'most successful
entrepreneur in the history of American business,' invented vital computer
components and cofounded Digital Equipment Corporation, developer of the
minicomputer. |
|
|
2600 |
Born in Stratford,
Connecticut, Olsen began his career working summers in a machine shop. Fixing
radios in his basement gave him the reputation of a neighborhood 'Edison.' |
|
|
2602 |
After serving in the
Navy between 1944 and 1946, he attended the Massachusetts Institute of
Technology, where he earned a B.S. (1950) and an M.A. (1952) in electrical
engineering. During his studies at MIT, the Office of Naval Research of the
Air Force recruited Olsen to help build a computerized flight simulator. Also
while at MIT he directed the building of the first transistorized research
computer. |
|
|
2604 |
In 1957, Olsen, along
with Harlan Anderson, an MIT colleague, formed the Digital Equipment
Corporation with a $70,000 investment from General Georges F. Doriot at the
American Research and Development Corporation. Digital began producing
printed circuit logic modules used by engineers to test electronic equipment.
The company also started developing the world's first small interactive
computer. |
|
|
2606 |
In 1960 Digital produced
the Programmed Data Processor or PDP-1, a computer that used a cathode ray
tube monitor. In 1965, after two more generations of PDP computers, Digital
brought out the PDP-8, the world's first mass-produced minicomputer. Later,
using integrated circuits, the PDP-8/1 proved cheaper and faster than
transistor-driven machines. In 1970 Digital produced the PDP-11, which became
the most popular minicomputer line in history. |
|
|
2608 |
In
the 1960s Olsen received patents for a saturable switch, a diode transformer
gate circuit, magnetic core memory, and the line printer buffer. |
|
| 1811 |
2610 |
Elisha Graves Otis |
|
|
Born Aug 3 1811 - Died Apr 8 1861 |
|
|
Improvement in Hoisting Apparatus |
Ind |
|
Elevator Brake |
|
| 1854 |
2620 |
Elisha
Graves Otis didn't invent the elevator, he invented something perhaps more
important-the elevator brake-which made skyscrapers a practical reality. |
|
|
2624 |
Otis
had no way of knowing that this simple safety device was to alter the face of
the globe, that because of it vast cities would spring up toward the sky
instead of spreading toward the horizon as in the past. |
|
|
2628 |
Born on a farm near
Halifax, Vermont, the youngest of six children, Otis made several attempts at
establishing businesses in his early years. However, chronically poor health
led to continual financial woes. |
|
|
2630 |
Finally, in 1845, he
tried to change his luck with a move to Albany, New York. There he worked as
a master mechanic in the bedstead factory of O. Tingley & Company. He
remained about three years and during that time invented and put into use a
railway safety brake, which could be controlled by the engineer, and
ingenious devices to run rails for four-poster beds and to improve the
operation of turbine wheels. |
|
|
2632 |
By 1852 he had moved to
Yonkers, New York, to organize and install machinery for the bedstead firm of
Maize & Burns, which was expanding. Josiah Maize needed a hoist to lift
heavy equipment to the upper floor. Although hoists were not new, Otis' inventive
nature had been piqued because of the equipment's safety problem. |
|
|
2634 |
If one could just devise
a machine that wouldn't fall.... He hit upon the answer, a tough, steel wagon
spring meshing with a ratchet. If the rope gave way, the spring would catch
and hold. |
|
|
2636 |
In
1854 Otis dramatized his safety device on the floor of the Crystal Palace
Exposition in New York. With a large audience on hand, the inventor ascended
in an elevator cradled in an open-sided shaft. Halfway up, he had the
hoisting cable cut with an axe. The platform held fast and the elevator
industry was on its way. |
|
| 1832 |
2638 |
Nicolaus August Otto |
|
|
Born Jun 10 1832 - Died Jan 26 1891 |
|
|
Gas-Motor Engine |
Ind |
|
Gas-Motor Engine |
|
| 1876 |
2648 |
Engineer Nicolaus August
Otto invented the first practical alternative to the steam engine. |
|
|
2650 |
Although
an earlier patent by French engineer Alphonse de Rochas was found, Otto built
the first practical and successful four-stroke cycle engine. |
|
|
2654 |
Because
of its reliability, efficiency, and relative quietness, more than 30,000 Otto
cycle engines were built in the next 10 years. |
|
|
2658 |
Born in Holzhausen,
Germany, Otto built his first gas engine in 1861. Then, in partnership with
German industrialist Eugen Langen, they improved the design and won a gold
medal at the Paris Exposition of 1867. |
|
|
2660 |
In
1876, Otto, then a traveling salesman, chanced upon a newspaper account of
the Lenoir internal combustion engine. Before year's end, Otto had built an
internal combustion engine, utilizing a four-stroke piston cycle. Now called
the 'Otto cycle' in his honor, the design called for four strokes of a piston
to draw in and compress a gas-air mixture within a cylinder resulting in an
internal explosion. |
|
| 1906 |
2662 |
Louis W. Parker |
|
|
Born Jan 1 1906 - Died Jun 21 1993 |
|
|
Television Receiver |
Video |
|
Television |
|
| 1945 |
2672 |
Louis
W. Parker invented the intercarrier sound system for television sets, the
modern basis for coordinating sound and picture. |
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|
2680 |
Born in Budapest,
Hungary, Parker received his primary and secondary education in Hungary.
Following graduation he immigrated to the United States, becoming a
naturalized citizen in 1932. After learning English, he studied at the City
College of New York. He was honored by Nova University in 1970 with an
honorary Doctor of Science degree. Parker first gained publicity in 1929 with
a hotel radio system that used low-frequency signals to broadcast over the
electric wires within the building. This made it possible to receive
noiseless reception with one-tube receivers. |
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|
2682 |
Later he worked on radio
direction finders for airplanes and cathode ray oscilloscopes, which led to
work on television and closed circuit television systems. |
|
|
2684 |
During World War II,
Parker designed and manufactured portable radio transmitters for military
use. After the war he created the intercarrier sound system still used in all
television receivers. Without it television receivers would not work as well
and would be more costly. |
|
|
2686 |
Among Parker's other
inventions was the first color television system using vertical color lines.
This made it possible to change from the original three-color dot system to
the simpler vertical color-line system. Most of the color television
receivers in the world now use this system. |
|
|
2688 |
Later he invented
electrical instruments operating on somewhat different principles which were
greatly superior in performance and which were the basis for the Parker
Instrument Corporation. The company was chosen by the National Aeronautics
and Space Administration to furnish selected instruments for use in the
manned Apollo flights to the moon. |
|
|
2690 |
Parker
received more than 200 United States and foreign patents. |
|
| 1913 |
2692 |
John T. Parsons |
|
|
Born Oct
11 1913 |
|
|
Motor Controlled Apparatus for Positioning Machine Tool |
Tool |
|
Numerical Control |
|
| 1947 |
2702 |
|