In this biography
Quick facts
- Born
- 15 December 1916
- Died
- 5 October 2004
- Birthplace
- Pongaroa, New Zealand
- Country
- New Zealand
- Nationality
- Not independently established
- Known for
- Experimental DNA structure research and socially responsible science
- Doctorate
- Birmingham physics,1940
- Postwar transition
- St Andrews, then King’s in 1946
- Nobel Prize
- Physiology or Medicine,1962; one-third
- Death
- 5 October 2004, London
Why this life matters
His experimental programme helped establish DNA’s helical structure and test structural models; his later public work addressed scientists’ responsibilities for the uses of their research.
Timeline
Key moments
Birth
Born in Pongaroa on 15 December.
Cambridge degree
Completed undergraduate physics.
Doctorate
Completed Birmingham research on phosphorescence.
King’s unit
Joined the newly formed biophysics research setting.
DNA reports
His group’s experimental paper appeared beside the other two Nature reports.
Nobel Prize
Shared the Medicine Prize with Crick and Watson.
Scientific responsibility
Presided over the British Society for Social Responsibility in Science.
Death
Died in London on 5 October.
Physics training began before the biological question
Wilkins was born in Pongaroa on 15 December 1916 and moved to England with his family at six. He studied physics at St John’s College, Cambridge, graduating in 1938, then joined John Randall’s research at Birmingham. His 1940 doctorate examined phosphorescence and trapped electrons in solids. This foundation matters because his later biological experiments grew from experience with physical measurement and instruments. His career was not initially a search for DNA’s structure; it developed through a change in the problems to which he applied that training.
War research preceded a deliberate change of field
During the war he worked on radar-related screens and uranium-isotope separation, moving with colleagues to the Manhattan Project at Berkeley. After the war he joined Randall at St Andrews and then the new biophysics setting at King’s College London in 1946. His Nobel account describes ultrasonic effects, ultraviolet microscopes and measurements of nucleic acids before the DNA diffraction programme. These were specific attempts to investigate biological material with physical tools. King’s later account also describes his dissatisfaction with military applications and his subsequent involvement in nuclear-disarmament campaigning.
The experimental programme depended on prepared materials
At King’s, Wilkins and Raymond Gosling obtained diffraction images from DNA preparations. Rosalind Franklin arrived in 1951, and Franklin and Gosling developed their own important experimental work. The 1953 Wilkins-group report describes molecular configuration, the interpretation of fibre patterns and evidence from several biological preparations. Its authors explicitly distinguish what the pattern reveals from the sequence of bases, which it does not display. Reading that paper gives a more concrete account of Wilkins’s contribution than merely naming him as one of the people associated with the familiar double-helix model.
Research continued after the famous publication
Wilkins’s Nobel account lists later structural work on crystalline DNA with collaborators including Robert Langridge and Herbert Wilson, and on RNA with other colleagues. King’s describes a sustained programme testing the proposed DNA structure. His unit responsibilities also changed over time: the Nobel account dates his assistant-director role to 1950 and deputy-director role to 1955. He became a Fellow of the Royal Society in 1959. In 1962 he received one third of the Nobel Prize in Physiology or Medicine, alongside Francis Crick and James Watson. The prize citation and the papers serve different purposes in recording contributions.
The public career included responsibility for science
Wilkins remained at King’s through his later research career and became active in organisations concerned with the social consequences of science. He presided over the British Society for Social Responsibility in Science from 1969 to 1991, according to the college’s account. He died in London on 5 October 2004. His biography joins a technical story about instruments and molecular evidence with a public concern about what scientific work enables. That combination also connects the wartime physicist with the later biophysicist, rather than presenting those as unrelated episodes surrounding a single Nobel-winning moment.
Quick answers
Frequently asked questions about Maurice Wilkins
- Was Wilkins originally trained in biology?
- His Cambridge and Birmingham training was in physics; his move into biophysics came after the war.
- Did the 1962 prize replace the original papers’ author lists?
- No. The prize identified its recipients, while the papers retain the specific experimental authorship.
Keep exploring
Lives connected to this story
- Rosalind Franklin
Read the experimental researcher whose separate work with Gosling is compared in the existing 1953 guide.
- Ernest Rutherford
Compare another New Zealand-born physicist’s British research career in a different generation.
- Susumu Tonegawa
Follow a later molecular-biology question about changes in antibody-gene organisation.
Sources and further reading
Explore the evidence
These references support the biography and offer further reading. Official records, first-person accounts and independent reporting provide different perspectives; image records document attribution and licensing.
- 1. Maurice Wilkins; Nobel FoundationMaurice Wilkins: autobiographical account
The Nobel account was written at the time of the award. Its present-tense roles are historical. The CBE year differs from the King’s account, so that exact year is omitted.
- 2. Nobel FoundationMaurice Wilkins: Nobel Prize facts
- 3. King’s College LondonMaurice Wilkins FRS: institutional biography
- 4. Watson and Crick; Wilkins, Stokes and Wilson; Franklin and Gosling; Memorial University-hosted scanNature25 April 1953: the three DNA papers, original scan
Original scanned pages 2–5, printed 738–741, were visually read for the Wilkins-group argument and author line and the Franklin–Gosling argument and credits. No OCR, copied figure or new diffraction analysis is claimed.
