Geoffrey Dummer

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Jeffrey Dahmer American serial killer, rapist, cannibal, and necrophile

Jeffrey Lionel Dahmer, also known as the Milwaukee Cannibal or the Milwaukee Monster, was an American serial killer and sex offender who committed the rape, murder, and dismemberment of 17 men and boys from 1978 to 1991. Many of his later murders involved necrophilia, cannibalism, and the permanent preservation of body parts—typically all or part of the skeleton.

Geoffrey Dummer
GeoffreyDummer.jpg
Geoffrey Dummer in September 1955
Born(1909-02-25)25 February 1909
Hull, Yorkshire, England
Died9 September 2002(2002-09-09) (aged 93)
Malvern
Nationality British
Alma mater Manchester College of Technology
Scientific career
Fields Electronic engineering

Geoffrey William Arnold Dummer, MBE (1945) , C. Eng. , IEE Premium Award, FIEEE , MIEE , USA Medal of Freedom with Bronze Palm (25 February 1909 – 9 September 2002) was an English electronics engineer and consultant who is credited as being the first person to conceptualise and build a prototype of the integrated circuit, commonly called the microchip, in the late 1940s and early 1950s. Dummer passed the first radar trainers and became a pioneer of reliability engineering at the Telecommunications Research Establishment in Malvern in the 1940s. [1]

Institution of Electrical Engineers

The Institution of Electrical Engineers (IEE) was a British professional organisation of electronics, electrical, manufacturing, and Information Technology professionals, especially electrical engineers. It began in 1871 as the Society of Telegraph Engineers. In 2006, it ceased to exist independently, becoming part of the Institution of Engineering and Technology (IET).

Institute of Electrical and Electronics Engineers scholarly society, publisher and standards organization, headquartered in US

The Institute of Electrical and Electronics Engineers (IEEE) is a professional association for electrical engineers with its corporate office in New York City and its operations center in Piscataway, New Jersey. It was formed in 1963 from the amalgamation of the American Institute of Electrical Engineers and the Institute of Radio Engineers.

Presidential Medal of Freedom Joint-highest civilian award of the United States, bestowed by the President

The Presidential Medal of Freedom is an award bestowed by the president of the United States. The Presidential Medal of Freedom and the Congressional Gold Medal are the highest civilian awards of the United States. The presidential medal seeks to recognize those people who have made "an especially meritorious contribution to the security or national interests of the United States, world peace, cultural or other significant public or private endeavors". The award is not limited to U.S. citizens and, while it is a civilian award, it can also be awarded to military personnel and worn on the uniform.

Contents

Born in Hull, Dummer studied electrical engineering at Manchester College of Technology starting in the early 1930s. By the early 1940s he was working at the Telecommunications Research Establishment in Malvern (later to become the Royal Radar Establishment).

Kingston upon Hull City and unitary authority in England

Kingston upon Hull, usually abbreviated to Hull, is a port city and unitary authority in the East Riding of Yorkshire, England. It lies upon the River Hull at its confluence with the Humber Estuary, 25 miles (40 km) inland from the North Sea, 50 miles (80 km) east of Leeds, 34 miles (55 km) southeast of York and 54 miles (87 km) northeast of Sheffield. With a population of 260,645 (mid-2018 est.), Hull is the fourth-largest city in Yorkshire and the Humber.

Telecommunications Research Establishment

The Telecommunications Research Establishment (TRE) was the main United Kingdom research and development organization for radio navigation, radar, infra-red detection for heat seeking missiles, and related work for the Royal Air Force (RAF) during World War II and the years that followed. The name was changed to Radar Research Establishment in 1953, and again to the Royal Radar Establishment in 1957. This article covers the precursor organizations and the Telecommunications Research Establishment up to the time of the name change. The later work at the site is described in the separate article about RRE.

The Royal Radar Establishment was a research center in Malvern, Worcestershire in the United Kingdom. It was formed in 1953 as the Radar Research Establishment by the merger of the Air Ministry's Telecommunications Research Establishment (TRE) and the British Army's Radar Research and Development Establishment (RRDE). It was given its new name after a visit by Queen Elizabeth II in 1957. Both names were abbreviated to RRE. In 1976 the Signals Research and Development Establishment (SRDE), involved in communications research, joined the RRE to form the Royal Signals and Radar Establishment (RSRE).

His work with colleagues at TRE led him to the belief that it would be possible to fabricate multiple circuit elements on and into a substance like silicon. [2] In 1952 he presented his work at a conference in Washington, DC, about six years before Jack Kilby of Texas Instruments was awarded a patent for essentially the same idea. As a result, he has been called "the prophet of the integrated circuit".

Silicon Chemical element with atomic number 14

Silicon is a chemical element with the symbol Si and atomic number 14. It is a hard and brittle crystalline solid with a blue-grey metallic lustre; and it is a tetravalent metalloid and semiconductor. It is a member of group 14 in the periodic table: carbon is above it; and germanium, tin, and lead are below it. It is relatively unreactive. Because of its high chemical affinity for oxygen, it was not until 1823 that Jöns Jakob Berzelius was first able to prepare it and characterize it in pure form. Its melting and boiling points of 1414 °C and 3265 °C respectively are the second-highest among all the metalloids and nonmetals, being only surpassed by boron. Silicon is the eighth most common element in the universe by mass, but very rarely occurs as the pure element in the Earth's crust. It is most widely distributed in dusts, sands, planetoids, and planets as various forms of silicon dioxide (silica) or silicates. More than 90% of the Earth's crust is composed of silicate minerals, making silicon the second most abundant element in the Earth's crust after oxygen.

Jack Kilby American electrical engineer

Jack St. Clair Kilby was an American electrical engineer who took part in the realization of the first integrated circuit while working at Texas Instruments (TI) in 1958. He was awarded the Nobel Prize in Physics on December 10, 2000. To congratulate him, American President Bill Clinton wrote, "You can take pride in the knowledge that your work will help to improve lives for generations to come."

Texas Instruments American semiconductor designer and manufacturer

Texas Instruments Incorporated (TI) is an American technology company that designs and manufactures semiconductors and various integrated circuits, which it sells to electronics designers and manufacturers globally. Its headquarters are in Dallas, Texas, United States. TI is one of the top-10 semiconductor companies worldwide, based on sales volume. Texas Instruments's focus is on developing analog chips and embedded processors, which account for more than 80% of their revenue. TI also produces TI digital light processing technology and education technology products including calculators, microcontrollers and multi-core processors. To date, TI has more than 45,000 patents worldwide.

Dummer was admitted to a nursing home in Malvern in 2000 due to a stroke and died in September 2002, aged 93.

Life

Early years

G. W. A. Dummer was born in Hull, Yorkshire, England, 25 February 1909, and educated at Sale High School and Manchester College of Technology. His first job was with Mullard Radio Valve Company in 1931 examining defective valves returned by customers to establish the cause of failure, the company's aim being to attribute the cause to rough handling to avoid having to supply free replacements. Technicians were expected to process up to 1000 valves per day.

Manchester College of Arts and Technology is a former network of further and higher education campuses in the city of Manchester, England specialising in courses in the Arts and Technology, however courses in many other fields were also offered. MANCAT was merged with the City College Manchester in August 2008, forming The Manchester College, which is now the largest college in Europe, according to the TMC website. Over 500 courses were offered at all levels and the college was one of the largest in the Greater Manchester area, with sites at Openshaw, Moston and other locations. MANCAT had around 45,000 students, making it alone one of the largest further education colleges in the United Kingdom.

Mullard British manufacturer of electronic components

Mullard Limited was a British manufacturer of electronic components. The Mullard Radio Valve Co. Ltd. of Southfields, London, was founded in 1920 by Captain Stanley R. Mullard, who had previously designed thermionic valves for the Admiralty before becoming managing director of the Z Electric Lamp Co. The company soon moved to Hammersmith, London and then in 1923 to Balham, London. The head office in later years was Mullard House at 1–19 Torrington Place, Bloomsbury, now part of University College London.

In 1935 he moved to A. C. Cossor Ltd to work on cathode ray tubes, time bases and circuits. In 1938 he moved to Salford Electrical Instruments and worked in the high-frequency laboratories. The following year he joined the Ministry of Defence as a Technical Officer on a salary of £275 pa[ clarification needed ] and worked with the team under R. J. Dippy on time bases at the Air Ministry Research Establishment (later known as the Telecommunications Research Establishment (TRE), The Royal Radar Establishment (RRE), Malvern and the Royal Signals and Radar Establishment). The group was responsible for the first plan position indicator (PPI) ever built, and they were granted two patents for their work.

Bawdsey Manor

Bawdsey Manor stands at a prominent position at the mouth of the River Deben close to the village of Bawdsey in Suffolk, England, about 74 miles (119 km) northeast of London. Built in 1886, it was enlarged in 1895 as the principal residence of Sir William Cuthbert Quilter. Requisitioned by the Devonshire Regiment during World War I and having been returned to the Quilter family after the war, it was purchased by the Air Ministry for £24,000 in 1936 to establish a new research station for developing the Chain Home RDF (radar) system. RAF Bawdsey was a base through the Cold War until the 1990s. The manor is now used for PGL holidays and courses, and has a small museum in the Radar Transmitter Block.

Plan position indicator type of radar display

A plan position indicator (PPI) is a type of radar display that represents the radar antenna in the center of the display, with the distance from it and height above ground drawn as concentric circles. As the radar antenna rotates, a radial trace on the PPI sweeps in unison with it about the center point. It is the most common type of radar display.

Second World War

The pace of development increased dramatically during the early war years for the personnel of RRE, Malvern, and a close working relationship was established with the Royal Air Force. In 1942 Geoffrey Dummer started a Synthetic Trainer Design Group and was responsible for the design, manufacture, installation and servicing of over 70 types of radar training equipment for service use during the war. In 1943 he visited the United States and Canada to advise on trainers and to help set up similar training devices in the USA.

The drive for component reliability

In 1944 he had been made Divisional Leader of the Physical & Tropical Testing Laboratories and the Component Group, which placed contracts with industry for new components and materials. His interest in components grew out of his experience with radar. "They were the bricks and mortar, and many of them were not as reliable as they should have been", he said. Out of his drive for reliability came the search for new techniques and methods of construction. Together with Dr A. C. Vivian he made the first plastic potted circuit in January 1947 to protect components from shock and moisture. Printed wiring methods and etching techniques were explored, and their use encouraged in radar equipment.

The integrated circuit

In May 1952 Geoffrey Dummer read a paper at the US Electronic Components Symposium. At the end of the paper he made the statement: "With the advent of the transistor and the work on semi-conductors generally, it now seems possible to envisage electronic equipment in a solid block with no connecting wires. [3] The block may consist of layers of insulating, conducting, rectifying and amplifying materials, the electronic functions being connected directly by cutting out areas of the various layers". [4]

This is now generally accepted as the first public description of an integrated circuit. At a later date he said:[ citation needed ]

It seemed so logical to me; we had been working on smaller and smaller components, improving reliability as well as size reduction. I thought the only way we could ever attain our aim was in the form of a solid block. You then do away with all your contact problems, and you have a small circuit with high reliability. And that is why I went on with it. I shook the industry to the bone. I was trying to make them realise how important its invention would be for the future of microelectronics and the national economy.

His ability to turn his idea of an integrated circuit into practical reality was restricted by his lack of responsibility for active devices and the lack of suitable manufacturing techniques. He got over his lack of suitable authority to commission development work by placing a small contract with Plessey under the auspices of his Constructional Techniques Group. The result was shown at The International Components Symposium he initiated at R.R.E. Malvern in September 1957, where he presented a model to illustrate the possibilities of solid-circuit techniques. The model represented a flip-flop in the form of a solid block of semiconductor material suitably doped and shaped to form four transistors. Four resistors were represented by silicon bridges, and other resistors and capacitors were deposited in film form directly onto the silicon block with intervening insulating films. The model was intended as a design exercise, but was not too different from the circuit patented by Jack St Clair Kilby two years later.

Dummer made no claim to be the inventor of microelectronics, a role he assigned to Robert Noyce and Jean Hoerni, whose planar process turned the relatively crude ideas of Kilby into a reliable manufacturing product, which is what Dummer had been waiting for. He began a campaign to encourage substantial UK investment in IC development, but was met largely with apathy. The UK military failed to perceive any operational requirements for ICs, and UK companies were unwilling to invest their own money. He later said: "I have attributed it to war-weariness in one of my books, but that is perhaps an excuse. The plain fact is that nobody would take the risk. The Ministry wouldn't place a contract because they hadn't an application. The applications people wouldn't say we want it because they had no experience with it. It was a chicken-and-egg situation. The Americans took financial gambles, whereas this was very slow in this country". It was years before the UK had a significant semiconductor industry.

Later years

His knowledge and experience of components, their design, construction, application, and reliability had become widely recognised. He liaised with numerous international organisations and authorities. He served on many committees worldwide, both as member and chairman. He appeared on the popular BBC Television programme Tomorrow's World , extolling the virtues of integrated circuits. In 1964 he sponsored a symposium on Electronic Beam Techniques for Microelectronics at R.R.E. He produced numerous books on electronic equipment, inventions and discoveries, components and reliability, for several publishing houses, including McGraw-Hill, Pitman and notably, Pergamon Press, whose Electronic Data Series ran to 39 volumes. His retirement as Superintendent of Applied Physics in 1966 allowed him to take up the role of a consultant, as well as continuing to add to his numerous published works. He was Editor-in-Chief of Pergamon's International Journal Microelectronics and Reliability, which he had founded, and Editorial Adviser to Electronic Components (United Trade Press).

His wife Dorothy died in 1992, and he married again, to June, who survived him. As a result of a stroke in 1999, he spent his last two and a half years at Perrins House, Malvern. He died in September 2002 and was interred in Malvern Cemetery.

Family history

Geoffrey William Arnold Dummer was born 25 February 1909 at Kingston upon Hull, England, the son of Arthur Robert William Dummer, a caretaker, and Daisy Maria King. Geoffrey married Dorothy Whitelegg in 1934, the marriage being registered at Bucklow. Their only son, Stephen John, was born in 1945 at Bearsted, Kent.

In May 1966 Geoffrey was contacted by Michael Dummer, who had started a study of all Dummers, concerning Geoffrey's family history. At that time Geoffrey knew almost nothing of his ancestors before his grandparents, but was stimulated to start researching them. He was particularly hopeful of establishing a link with the notable Dummer family who had held estates in Hampshire in the 15th, 16th and 17th centuries, and who included in their number Edmund Dummer, Surveyor of The Navy, and Richard Dummer, one of the founding fathers of Massachusetts.

His researches were to lead him in a different direction, however. His father had been born at the City Gaol, Gorton, where his grandfather, Moses Dummer, was gaoler. Geoffrey found out that Moses was born in the village of Lacock, Wiltshire. A search through the parish registers at Lacock revealed a long line of Dummers stretching back to 1559, and although it was not possible to positively prove his own line beyond Robert Dummer of 1732, it was obvious that his roots stretched a long way back at Lacock. The names Moses, Robert and Ephraim were a recurrent feature. Like others at Lacock, many of the family had been weavers, and the little packhorse bridge near the church had at one time been known as Dummer's Bridge. Sadly, Geoffrey's only son, Stephen, a Merchant Navy officer, was drowned in Mombasa in 1983, terminating Geoffrey's interest in family history, and he passed his papers to Michael Dummer.

Achievements

Occupations

Honours

Published works

Books

  • Fixed Capacitors (Pitman 1956)
  • Fixed Resistors (Pitman 1956)
  • Variable Resistors and Potentiometers (Pitman 1956)
  • Variable Capacitors and Trimmers (Pitman 1957)
  • Electronic Equipment Reliability (with N. Griffin) (Pitman/Wiley 1960 )
  • Fixed & Variable Capacitors (with H. M. Nordenburg) (McGraw-Hill 1960)
  • Microminiaturization: Proceedings of the AGARD Conference 1961 (Pergamon 1961)
  • Miniature & Microminiature Electronics (with J. Wiley Granville) (Pitman 1961)
  • Electronic Equipment Design & Construction (with Cledo Brunetti & Low K. Lee) (McGraw-Hill 1961)
  • Wires & R.F. Cables (with W. T. Blackband) (Pitman 1961)
  • Environmental Testing Techniques for Electronics & Materials (Pergamon 1962)
  • British Transistor Diode & Semiconductor Devices Annual 1962–63 (with J. Mackenzie-Robertson) (Pergamon 1962)
  • Electronic Components, Tubes and Transistors (Pergamon 1963)
  • World Lists of Electronic & Component Specifications (1963 & later) (with J. Mackenzie-Robertson)
  • Solid Circuits & Miniaturization – Proceedings of the Conference held at West Ham College of Technology June 1963 (Macmillan/Pergamon 1964)
  • Proceedings of the First Microelectronics Lecture Course (United Trade, London 1965)
  • Electronics Reliability – Calculations & Design (Commonwealth & International Library 1966)
  • Modern Electronic Components (NY Philosophical Lib. 1959, Pitman 1966)
  • Japanese Miniature Electronic Components Data 1966–67 (Pergamon 1966)
  • Connectors, Relays & Switches (with N. E. Hyde) (Pitman 1966)
  • Medical Electronics Equipment 1966–67 (with J. Mackenzie-Robertson) (eds) (also later editions)
  • Educational Electronics Equipment 1966–67 (Pergamon 1967)
  • Fluidic Components & Equipment 1968–69 (Pergamon 1968)
  • Anglo-American Microelectronics Data (1968) (with J. Mackenzie-Robertson)
  • German Miniature Electronic Components & Assemblies Data (1968)
  • Electronic Connections, Techniques and Equipment (Pergamon 1969) (with J. Mackenzie-Robertson)
  • Materials for Conductive and Resistive Functions (Hayden 1970)
  • Automobile Electronic Equipment 1970–71 (Pergamon)
  • Banking Automation (1971)
  • Electronic Inventions 1745–1976 (Elsevier 1976, Pergamon 1977)
  • Semiconductor & Microprocessor Technology – Selected Papers Presented at the SEMINEX Technical Seminar (Elsevier 1978)
  • Electronic Inventions and Discoveries: Electronics from Its Earliest Beginnings to the present Day (Ifac Proceedings Series) (Pergamon 1983)
  • The Timetable of Technology (ed) (Hearst 1982)
  • An Elementary Guide to Reliability (Butterworth-Heinemann 1997) (later editions with R. C. Winton and Michael H. Tooley).
  • Newnes Dictionary of Electronics (Newnes 1999) (with S. W. Amos and Roger Amos)
  • The Electronics Book List (with J. Mackenzie-Robertson)

Journals

  • (International Journal) Microelectronics and Reliability (Elsevier Science) – Founding editor

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References

  1. "Death of a man whose idea went on to change the world forever". web.archive.org. 28 September 2007. Archived from the original on 28 September 2007. Retrieved 7 January 2019.
  2. "BBC News | Sci/Tech | UK missed out on microchip". news.bbc.co.uk. Retrieved 7 January 2019.
  3. Lott, Sara. "1958 – All semiconductor "Solid Circuit" is demonstrated". A Timeline of Semiconductors in Computers. Computer History Museum. Retrieved 4 September 2011.
  4. Hey, Tony; Pápay, Gyuri (2015). The Computing Universe: A Journey through a Revolution. USA: Cambridge University Press. p. 125. ISBN   978-0521150187.