Hidden Patterns Show Nobel Prize Science Trends

Time lags between discoveries and awards show how the Nobel Prizes reward science

Detail of three slope charts, labelled chemistry, physiology or medicine, and physics.

Jen Christiansen

Join Our Community of Science Lovers!

Meteorologist Syukuro Manabe shared the 2021 Nobel Prize in Physics for his work modeling gases’ movement through a column of atmospheric air—in the 1960s. His 60-year-old research had proved foundational for the computer models that scientists use today to interpret and predict our changing climate.

Manabe’s wait was particularly long, but there is often a substantial gap between the awarding of a Nobel Prize and the earliest work it honors—an average of 20 years across categories, Scientific American found. “It takes time to prove that something has impact beyond just curiosity,” says John Ioannidis, a Stanford University professor who has examined the Nobels’ distribution and influence. Although the awards are not a representative look at all of science, they reveal the trends and incentives shaping key scientific fields.

As Nobel season approaches, we at the magazine wondered what subfields of science have been most celebrated and whether there are visible patterns related to the amount of time between the research and the recognition. We used the official Nobel synopses and statements to sort the awards into our own subdiscipline categories and to inform research dates on a timeline that shows the trends.


On supporting science journalism

If you're enjoying this article, consider supporting our award-winning journalism by subscribing. By purchasing a subscription you are helping to ensure the future of impactful stories about the discoveries and ideas shaping our world today.


One clear pattern is the increase in multiple laureates per prize. Each award can be split among a maximum of three living researchers, but that rule is increasingly constraining as science becomes more collaborative. This stipulation may even skew what gets highlighted as the most significant research going forward, Ioannidis suggests, if a Nobel Committee cannot pick only three individuals responsible for a result. “It’s not easy to have someone who really stands out so separately from the rest of the world.”

Series of charts break down the Nobel prize in chemistry over time. Awards are sorted into eight subdisciplines: organic/biochemistry (43 laureates), organic/molecular (22), organic/other (33), inorganic/molecular (9), inorganic/other (14), physical/quantum (12), physical/other (50) and analytical (11). Time elapsed between earliest key research date and award year was a minimum of 1 year, a maximum of 49 years and an average of 21 years.

Jen Christiansen; Source: https://www.nobelprize.org/prizes/lists/all-nobel-prizes/all/ (primary reference)

Series of charts break down the Nobel prize in physiology or medicine over time. Awards are sorted into eight subdisciplines: biochemistry/molecular (48 laureates), cellular (20), organs and systems (15), genetics (49), neuroscience (28), immunology and diseases (58), applied medicine (6) and ethnology (3). Time elapsed between earliest key research date and award year was a minimum of 1 year, a maximum of 56 years and an average of 20 years.

Jen Christiansen; Source: https://www.nobelprize.org/prizes/lists/all-nobel-prizes/all/ (primary reference)

Series of charts break down the Nobel prize in physics over time. Awards are sorted into nine subdisciplines: nuclear and particle (67 laureates), atomic and molecular (18), condensed-matter (51), quantum (21), astronomy, astrophysics and cosmology (27), applied (21), classical (5), optical (12) and chaos (3). Time elapsed between earliest key research date and award year was a minimum of 1 year, a maximum of 61 years and an average of 20 years.

Jen Christiansen; Source: https://www.nobelprize.org/prizes/lists/all-nobel-prizes/all/ (primary reference)

Sarah Lewin Frasier is Scientific American's assistant news editor. She plans, assigns and edits the Advances section of the monthly magazine, as well as editing online news. Before joining Scientific American in 2019, she chronicled humanity's journey to the stars as associate editor at Space.com. (And even earlier, she was a print intern at Scientific American.) Frasier holds an A.B. in mathematics from Brown University and an M.A. in journalism from New York University's Science, Health and Environmental Reporting Program. She enjoys musical theater and mathematical paper craft.

More by Sarah Lewin Frasier

Jen Christiansen is author of the book Building Science Graphics: An Illustrated Guide to Communicating Science through Diagrams and Visualizations (CRC Press) and senior graphics editor at Scientific American, where she art directs and produces illustrated explanatory diagrams and data visualizations. In 1996 she began her publishing career in New York City at Scientific American. Subsequently she moved to Washington, D.C., to join the staff of National Geographic (first as an assistant art director–researcher hybrid and then as a designer), spent four years as a freelance science communicator and returned to Scientific American in 2007. Christiansen presents and writes on topics ranging from reconciling her love for art and science to her quest to learn more about the pulsar chart on the cover of Joy Division's album Unknown Pleasures. She holds a graduate certificate in science communication from the University of California, Santa Cruz, and a B.A. in geology and studio art from Smith College. Follow Christiansen on Bluesky @jenchristiansen.com

More by Jen Christiansen
Scientific American Magazine Vol 331 Issue 3This article was originally published with the title “Nobel Connections” in Scientific American Magazine Vol. 331 No. 3 (), p. 72
doi:10.1038/scientificamerican102024-kkWaJPvXCkN9A7pfDGoBC