IET Awards - Faraday Medal
Awards, prizes and scholarships within engineering and technology
Other IET Awards
The IET Faraday Medal was established to commemorate the fiftieth anniversary of the first Ordinary Meeting of the Society of Telegraph Engineers.
It is the most prestigious of the IET Achievement Medals and is awarded either for notable scientific or industrial achievement in engineering or for conspicuous service rendered to the advancement of science, engineering and technology or for lifetime achievement in science, engineering or technology. The Award is made without restriction as regards nationality, country of residence or membership of the IET.
Recipients of the award are chosen by the IET Awards and Prizes Committee and are endorsed by the IET Knowledge Management Board.
The recipient will receive a Bronze Medal and velum scroll and be invited to sign the Roll of Honour album, a leather bound volume containing the photographs and signatures of all Faraday recipients, and also IET Honorary Fellows, going back through time until the inception of these awards.
The Medal is presented at the IET Achievement Awards ceremony, which is held in November each year. For background information on the Faraday Medal see the Fact Sheet.
How to nominate
Members and Non members of the IET are invited to propose the names of men and women from around the world to be considered for the award of the Faraday Medal. Nominations can be made by clicking onto the online nomination form on the right hand side. Proposals should be accompanied by brief biographical information, a short statement of the grounds on which the nomination is made and a brief 'curriculum vitae' (CV) of the person you are nominating.
Please note only one nomination is required per candidate and self-nominations will not be accepted.
- If you are interested in nominating someone, please see the Candidate Criteria Guidance (PDF) document before completing the nomination form.
|Professor Sir Michael Pepper FREng FRS, Department of Electronic and Electrical Engineering, University College London, UK, has been awarded the Faraday Medal for pioneering the basic and applied physics of advanced semiconductor structures. Building on his use of devices for investigating electron transport in disordered systems, he pioneered the physics of semiconductor nanostructures introducing techniques now used worldwide in proposed quantum information systems.|
|Dr Leonardo Chiariglione has been awarded the Faraday Medal in recognition of his pioneering contribution to the standardisation of the digital compression and encoding technique known as MPEG - Movie Picture Expert Group. This is extensively employed for digital video and media compression and has enabled the modern digital media revolution. From digital video broadcast, to web content downloads to social networking, MPEG technology is now part of the everyday life of billions of people around the world.|
Previous winners from 1922 to 2013
IET Archives Biography: Michael Faraday
Biographical information on Michael Faraday and his experiments which led directly to the modern electric motor, generator and transformer. Also includes his famous work on electromagnetic induction.
Michael Faraday (1791-1867) - his life and work
Michael Faraday was born into humble conditions, brought up in the Sandemanian sect of the Christian Church and made his name in the scientific world, despite his lack of formal education, through his outstanding discoveries, observations and experiments. His scientific work laid the foundations of all subsequent electro-technology.
From his experiments came devices which led directly to the modern electric motor, generator and transformer.
Michael Faraday was born on 22 September 1791. At the age of fourteen he was apprenticed to a London bookbinder. Reading many of the books in the shop, Faraday became fascinated by science, and wrote to Sir Humphry Davy at the Royal Institution asking for a job.
On 1 March 1813, he was appointed laboratory assistant at the Royal Institution. There Faraday immersed himself in the study of chemistry, becoming a skilled analytical chemist. In 1823 he discovered that chlorine could be liquefied and in 1825 he discovered a new substance known today as benzene.
However, his greatest work was with electricity. In 1821, soon after the Danish chemist, Oersted, discovered the phenomenon of electromagnetism, Faraday built two devices to produce what he called electromagnetic rotation: that is a continuous circular motion from the circular magnetic force around a wire.
Ten years later, in 1831, he began his great series of experiments in which he discovered electromagnetic induction. These experiments form the basis of modern electromagnetic technology.
On 29 August 1831, using his "induction ring", Faraday made one of his greatest discoveries - electromagnetic induction: the "induction" or generation of electricity in a wire by means of the electromagnetic effect of a current in another wire. The induction ring was the first electric transformer.
In a second series of experiments in September he discovered magneto-electric induction: the production of a steady electric current. To do this, Faraday attached two wires through a sliding contact to a copper disc. By rotating the disc between the poles of a horseshoe magnet he obtained a continuous direct current. This was the first generator.
Although neither of Faraday's devices is of practical use today they enhanced immeasurably the theoretical understanding of electricity and magnetism. He described these experiments in two papers presented to the Royal Society on 24 November 1831 and 12 January 1832.
These were the first and second parts of his "Experimental researches into electricity" in which he gave his ,"law which governs the evolution of electricity by magneto-electric induction".
After reading this, a young Frenchman, Hippolyte Pixii, constructed an electric generator that utilized the rotary motion between magnet and coil rather than Faraday's to and fro motion in a straight line. All the generators in power stations today are direct descendants of the machine developed by Pixii from Faraday's first principles.
Faraday continued his electrical experiments. In 1832 he proved that the electricity induced from a magnet, voltaic electricity produced by a battery, and static electricity were all the same. He also did significant work in electrochemistry, stating the First and Second Laws of Electrolysis. This laid the basis for electrochemistry, another great modern industry.
Faraday's descriptive theory of lines of force moving between bodies with electrical and magnetic properties enabled James Clerk Maxwell to formulate an exact mathematical theory of the propagation of electromagnetic waves.
In 1865 Maxwell proved mathematically that electromagnetic phenomena are propagated as waves through space with the velocity of light, thereby laying the foundation of radio communication confirmed experimentally in 1888 by Hertz and developed for practical use by Guglielmo Marconi at the turn of the century.
Faraday the lecturer and educator
Faraday was also the greatest scientific lecturer of his day, who did much to publicise the great advances of nineteenth century science and technology through his articles, correspondence and the Friday evening discourses which he established at the Royal Institution. He considered it a vital part of his job to educate the public on cutting-edge science.
The Royal Institution Christmas lectures for children, begun by Faraday, continue to this day.
In 1865 Faraday ended his connection with the Royal Institution after over 50 years of service. He died at his house at Hampton Court on 25 August 1867. His discoveries have had an incalculable effect on subsequent scientific and technical development. He was a true pioneer of scientific discovery.
2014 key dates
The IET Achievement Awards Ceremony:
19 November 2014, 17:00 (GMT)
Submit an Achievement Medal nomination
The online application form for the 2015 awards will be available later this year.
Faraday Medal fact sheet (PDF)