John Desmond Bernal Biography Quotes 20 Report mistakes
| 20 Quotes | |
| Occup. | Scientist |
| From | Ireland |
| Born | May 10, 1901 Nenagh, County Tipperary, Ireland |
| Died | September 15, 1971 London, England |
| Aged | 70 years |
John Desmond Bernal was born in 1901 in Nenagh, County Tipperary, Ireland, and grew up between rural Ireland and the wider intellectual worlds he would later inhabit. After schooling that introduced him to rigorous classical and scientific study, he went to Cambridge, reading Natural Sciences and quickly gravitating to physics and crystallography. In Cambridge he encountered figures who shaped his early outlook, notably the theorist Ralph Fowler, with whom he began thinking about the structure of liquids and the statistical nature of matter. Soon after, he worked with the pioneering X-ray physicist William H. Bragg in London, absorbing the experimental discipline that Bragg and, in time, William L. Bragg, had brought to the interpretation of diffraction patterns. This combination of theoretical curiosity and practical experimental craft became the hallmark of Bernal's career.
Crystallography and the Birth of Structural Biology
In the late 1920s and 1930s Bernal helped move X-ray crystallography from minerals to the living world. He introduced concepts and methods that made complex, disordered, and biological matter tractable, extending ideas first sharpened with Fowler on water and ice toward the architecture of macromolecules. His crucial insight that protein crystals could be examined while hydrated opened the way to meaningful diffraction studies of globular proteins. In 1934, working with a young researcher, Dorothy Crowfoot (later Dorothy Crowfoot Hodgkin), he obtained diffraction patterns from pepsin that showed, for the first time, that large biological molecules could be studied as structured entities rather than as amorphous masses. With collaborators such as Isidor Fankuchen he developed studies on proteins and viruses that bridged physics and biology. These advances seeded the structural approach later used to decipher hemoglobin, enzymes, and viral coats, and they influenced contemporaries and successors at Cambridge and beyond, including Max Perutz and John Kendrew in the Cavendish Laboratory.
War Work and Applied Science
During the Second World War Bernal shifted to problems where physics met national need. He applied quantitative reasoning to operational planning, notably for amphibious landings. Working with scientists and officers under the aegis of Combined Operations, led by Lord Louis Mountbatten, and in dialogue with colleagues such as P. M. S. Blackett, he analyzed beaches, tides, and the logistics of temporary harbors for the Normandy invasion. This work exemplified his conviction that the scientific method could illuminate complex, real-world decisions. The experience also confirmed his belief that science was a collective enterprise embedded in society, a view that would inform his postwar writing on science policy and organization.
Networks, Students, and Collaborators
Bernal's laboratory became a magnet for talent. At Birkbeck College in London he built a department that welcomed physicists, chemists, and biologists who wanted to use diffraction to probe life. Rosalind Franklin, after her work at King's College London on DNA, moved to Birkbeck and, with Bernal's support, led influential studies on the structure of tobacco mosaic virus; her group included Aaron Klug, who extended those lines of inquiry in virus and nucleic acid structure. Bernal's encouragement and the collaborative ethos he fostered helped crystallography expand from a specialist discipline into a shared language across the life sciences. His network extended internationally; he exchanged ideas with Linus Pauling on molecular architecture and with Frederic Joliot-Curie on the social responsibilities of scientists. Beyond laboratories, his circle overlapped with writers and artists. The painter Pablo Picasso met him through peace congresses and left an indelible sign of that connection by sketching on a wall in Bernal's London home, a small emblem of the porous boundary Bernal cultivated between scientific and cultural life.
Ideas, Books, and Public Engagement
Bernal wrote powerfully about science as a social force. The World, the Flesh and the Devil (1929) speculated on the long future of humanity in space and technology. The Social Function of Science (1939) argued that research is a collective, planned endeavor with economic and cultural consequences, themes he shared with fellow scientist-intellectuals J. B. S. Haldane, Julian Huxley, Joseph Needham, and Lancelot Hogben. In Science in History (1954) he surveyed the coevolution of knowledge, industry, and society, offering a sweeping interpretation that inspired debate across disciplines. Politically, he was associated with the British left and participated in international peace movements after the war, working alongside figures such as Joliot-Curie. He believed scientists should speak publicly about nuclear weapons, education, and development, and he used committees, conferences, and books to press for systematic support of research and for the peaceful uses of science.
Later Years and Legacy
Through the 1950s and 1960s Bernal continued to guide Birkbeck's crystallographers as structural biology matured. Even as his own health declined, he remained a catalytic presence, mentoring younger researchers and advocating for institutional frameworks that would sustain interdisciplinary science. He was elected a Fellow of the Royal Society, and his contributions were recognized by scientific bodies and civic organizations in Britain and abroad. Bernal died in 1971, leaving a record that stretches from foundational physics of liquids to the first clear view of protein architecture, from wartime analysis to a broad philosophy of science in society. His name endures in prizes, lectures, and laboratories, but most tangibly in the methods and sensibilities he helped establish: the commitment to collaboration; the conviction that complex biological form yields to quantitative experiment; and the belief, shared with friends and colleagues across his era, that science and public life are inseparable.
Our collection contains 20 quotes who is written by John, under the main topics: Deep - Free Will & Fate - Faith - Art - Peace.