The Nobel Prize in Physiology or Medicine is one of the prestigious awards established as per Alfred Nobel's will. The Nobel Prize is awarded annually by the Nobel Assembly at the Karolinska Institute in Stockholm.
The Nobel Prize in Physiology or Medicine recognises significant discoveries in the fields of physiology and medicine, rewarding research that has "conferred the greatest benefit on mankind".
The Nobel Prize for the year 2024 for the category of Physiology or Medicine was awarded jointly to Victor Ambros and Gary Ruvkun for their discovery of microRNA and its role in post-transcriptional gene regulation. This discovery was made in the 1990s and provided critical insights into how genes are controlled after they are transcribed into RNA. Before this discovery, it was believed that only proteins could regulate gene expression after transcription.
Here is a more detailed look at the Nobel Prize in Physiology and Medicine:
The Nobel Prize in Physiology or Medicine identifies the significant contributions to the field of Science that have contributed to the understanding of both Physiology and Medicine.
In addition to celebrating breakthrough discoveries in 1901, the Nobel Awards have celebrated significant discoveries that have led to:
Quick Facts on the Nobel Prize in Physiology and Medicine category :
Physiology and Medicine Prize:
|
115 |
40 | |
36 | |
39 | |
Physiology and Medicine Laureates: | 229 |
Awarded Women Laureates: | 13 |
Youngest Laureate: | 31 |
Oldest Laureate: | 87 |
The Nobel Prize in the category of Physiology and Medicine is one of the most prestigious awards in Science, which recognises accomplishments that have led to a significant impact on human health.
Several breakthroughs recognised by the Nobel Prize include the development of mRNA vaccines, cancer research and other research on differentiating functions of nerve fibres have contributed to the development of modern treatments and medications.
Many Nobel award laureates have succeeded in their research for new treatments, vaccines, and technologies. Thus, creating hope for curing previously untreatable health disorders.
Winning the Nobel Prize in the category of Physiology or Medicine is a significant achievement, which draws awareness to transformative discoveries on a global scale.
Consequently, through the Nobel Prize, the world honours and recognises the efforts of all those scientists who have dedicated their lives to discovering solutions for many health-related issues. Thus, improving human health and well-being.
The Nobel Prize in Physiology or Medicine has been awarded 115 times to 229 Nobel Prize laureates between 1901 and 2024.
Here is the list of Nobel Prize laureates for the category of Physiology or Medicine from 1901 to 2024, along with their achievements:
Nobel Prize Winners for the Category of Physiology Or Medicine from 1901-2024 | |||
---|---|---|---|
Year | Award Winner Name | Country | Awarded for |
1901 | Emil von Behring | Germany | Work on serum therapy |
1902 | Sir Ronald Ross | U.K. | Discovery of how malaria enters an organism |
1903 | Niels Ryberg Finsen | Denmark | Treatment of skin diseases with light |
1904 | Ivan Pavlov | Russia | Work on the physiology of digestion |
1905 | Robert Koch | Germany | Tuberculosis research |
1906 | Camillo Golgi | Italy | Work on the structure of the nervous system |
1906 | Cajal | Spain | Work on the structure of the nervous system |
1907 | Alphonse Laveran | France | Discovery of the role of protozoans in diseases |
1908 | Paul Ehrlich | Germany | Work on immunity |
1908 | Élie Metchnikoff | Russia | Work on immunity |
1909 | Emil Theodor Kocher | Switzerland | Physiology, Pathology, and Surgery of the thyroid gland |
1910 | Albrecht Kossel | Germany | Researches in cellular chemistry |
1911 | Allvar Gullstrand | Sweden | Work on dioptrics of the eye |
1912 | Alexis Carrel | France | Work on vascular suture; transplantation of organs |
1913 | Charles Richet | France | Work on anaphylaxis |
1914 | Robert Bárány | Austria-Hungary | Work on vestibular apparatus |
1919 | Jules Bordet | Belgium | Work on immunity factors in blood serum |
1920 | August Krogh | Denmark | Discovery of the capillary motor-regulating mechanism |
1922 | A.V. Hill | U.K. | Discoveries concerning heat production in muscles |
1922 | Otto Meyerhof | Germany | Work on the metabolism of lactic acid in muscles |
1923 | Sir Frederick Grant Banting | Canada | Discovery of insulin |
1923 | J.J.R. Macleod | U.K. | Discovery of insulin |
1924 | Willem Einthoven | Netherlands | Discovery of electrocardiogram mechanism |
1926 | Johannes Fibiger | Denmark | Contributions to cancer research |
1927 | Julius Wagner-Jauregg | Austria | Work on malaria inoculation in dementia paralytica |
1928 | Charles-Jules-Henri Nicolle | France | Work on typhus |
1929 | Christiaan Eijkman | Netherlands | Discovery of the antineuritic vitamin |
1929 | Sir Frederick Gowland Hopkins | U.K. | Discovery of growth-stimulating vitamins |
1930 | Karl Landsteiner | U.S. | Discovery of human blood groups |
1931 | Otto Warburg | Germany | Discovery of the nature and action of the respiratory enzyme |
1932 | Edgar Douglas Adrian, 1st Baron Adrian | U.K. | Discoveries regarding the function of neurons |
1932 | Sir Charles Scott Sherrington | U.K. | Discoveries regarding the function of neurons |
1933 | Thomas Hunt Morgan | U.S. | Discoveries concerning the role played by the chromosome in heredity |
1934 | George Richards Minot | U.S. | Discoveries concerning liver treatment for anaemia |
1934 | William P. Murphy | U.S. | Discoveries concerning liver treatment for anaemia |
1934 | George H. Whipple | U.S. | Discoveries concerning liver treatment for anaemia |
1935 | Hans Spemann | Germany | Organiser effect in embryos |
1936 | Sir Henry Dale | U.K. | Work on the chemical transmission of nerve impulses |
1936 | Otto Loewi | Germany | Work on the chemical transmission of nerve impulses |
1937 | Albert Szent-Györgyi | Hungary | Work on biological combustion |
1938 | Corneille Heymans | Belgium | Discovery of the role of sinus and aortic mechanisms in respiration regulation |
1939 | Gerhard Domagk (declined) | Germany | Antibacterial effect of Prontosil |
1943 | Edward Adelbert Doisy | U.S. | Discovery of the chemical nature of vitamin K |
1943 | Henrik Dam | Denmark | Discovery of vitamin K |
1944 | Joseph Erlanger | U.S. | Researches on differentiated functions of nerve fibres |
1944 | Herbert Spencer Gasser | U.S. | Researches on differentiated functions of nerve fibres |
1945 | Sir Ernst Boris Chain | U.K. | Discovery of penicillin and its curative value |
1945 | Sir Alexander Fleming | U.K. | Discovery of penicillin and its curative value |
1945 | Howard Walter Florey | Australia | Discovery of penicillin and its curative value |
1946 | Hermann Joseph Muller | U.S. | Production of mutations by X-radiation |
1947 | Carl and Gerty Cori | U.S. | Discovery of how glycogen is catalytically converted |
1947 | Bernardo Alberto Houssay | Argentina | Pituitary hormone function in sugar metabolism |
1948 | Paul Hermann Müller | Switzerland | Properties of DDT |
1949 | António Egas Moniz | Portugal | Therapeutic value of leucotomy in psychoses |
1949 | Walter Rudolf Hess | Switzerland | Discovery of functions of the interbrain |
1950 | Philip Showalter Hench | U.S. | Research on adrenal cortex hormones, their structure and biological effects |
1950 | Edward Calvin Kendall | U.S. | Research on adrenal cortex hormones, their structure and biological effects |
1950 | Tadeus Reichstein | Switzerland | Research on adrenal cortex hormones, their structure and biological effects |
1951 | Max Theiler | South Africa | Yellow fever discoveries |
1952 | Selman Abraham Waksman | U.S. | Discovery of streptomycin |
1953 | Sir Hans Adolf Krebs | U.K. | Discovery of the citric acid cycle |
1953 | Fritz Albert Lipmann | U.S. | Discovery of coenzyme A in the metabolism of carbohydrates |
1954 | John Franklin Enders | U.S. | Cultivation of the poliomyelitis virus in tissue cultures |
1954 | Frederick Chapman Robbins | U.S. | Cultivation of the poliomyelitis virus in tissue cultures |
1954 | Thomas H. Weller | U.S. | Cultivation of the poliomyelitis virus in tissue cultures |
1955 | Axel Hugo Teodor Theorell | Sweden | Nature and mode of action of oxidation enzymes |
1956 | André F. CournanD | U.S. | Discoveries concerning heart catheterisation and circulatory changes |
1956 | Werner Forssmann | West Germany | Discoveries concerning heart catheterisation and circulatory changes |
1956 | Dickinson Woodruff Richards | U.S. | Discoveries concerning heart catheterisation and circulatory changes |
1957 | Daniel Bovet | Italy | production of synthetic curare |
1958 | George Wells Beadle | U.S. | Genetic regulation of chemical processes |
1958 | Joshua Lederberg | U.S. | Genetic recombination |
1958 | Edward L. Tatum | U.S. | Genetic regulation of chemical processes |
1959 | Arthur Kornberg | U.S. | Work on producing nucleic acids artificially |
1959 | Severo Ochoa | U.S. | Work on producing nucleic acids artificially |
1960 | Sir Macfarlane Burnet | Australia | Acquired immunity to tissue transplants |
1960 | Sir Peter B. Medawar | U.K. | Acquired immunity to tissue transplants |
1961 | Georg von Békésy | U.S. | Functions of the Inner ear |
1962 | Francis Harry Compton Crick | U.K. | discoveries concerning the molecular structure of DNA |
1962 | James Dewey Watson | U.S. | Discoveries concerning the molecular structure of DNA |
1962 | Maurice Wilkins | U.S. | Discoveries concerning the molecular structure of DNA |
1963 | Sir John Carew Eccles | Australia | Study of the transmission of impulses along a nerve fibre |
1963 | Alan Hodgkin | U.K. | Study of the transmission of impulses along a nerve fibre |
1963 | Andrew Fielding Huxley | U.K. | Study of the transmission of impulses along a nerve fibre |
1964 | Konrad Bloch | U.S. | Discoveries concerning cholesterol and fatty acid metabolism |
1964 | Feodor Lynen West | Germany | Discoveries concerning cholesterol and fatty acid metabolism |
1965 | François Jacob | France | Discoveries concerning genetic control of enzyme and virus synthesis |
1965 | André Lwoff | France | Discoveries concerning genetic control of enzyme and virus synthesis |
1965 | Jacques Monod | France | Discoveries concerning genetic control of enzyme and virus synthesis |
1966 | Charles B. Huggins | U.S. | Discovery of tumour-inducing viruses |
1966 | Peyton Rous | U.S. | Discovery of tumour-inducing viruses |
1967 | Ragnar Arthur Granit | Sweden | Discoveries concerning the primary physiological and chemical visual processes in the eye |
1967 | Haldan Keffer Hartline u | U.S. | Discoveries concerning the primary physiological and chemical visual processes in the eye |
1967 | George Wald | U.S. | Discoveries concerning the primary physiological and chemical visual processes in the eye |
1968 | Robert William Holley | U.S. | For their interpretation of the genetic code and its function in protein synthesis |
1968 | Har Gobind Khorana | U.S. | For their interpretation of the genetic code and its function in protein synthesis |
1968 | Marshall Warren Nirenberg | U.S. | For their interpretation of the genetic code and its function in protein synthesis |
1969 | Max Delbrück | U.S. | Discoveries concerning the replication mechanism and the genetic structure of viruses |
1969 | A.D. Hershey | U.S. | Discoveries concerning the replication mechanism and the genetic structure of viruses |
1969 | Salvador Luria | U.S. | Discoveries concerning the replication mechanism and the genetic structure of viruses |
1970 | Julius Axelrod | U.S. | Discoveries concerning the humoral transmitters in the nerve terminals and the mechanism for their storage, release and inactivation |
1970 | Ulf von Euler | Sweden | Discoveries concerning the humoral transmitters in the nerve terminals and the mechanism for their storage, release and inactivation |
1970 | Sir Bernard Katz | U.K. | Discoveries concerning the humoral transmitters in the nerve terminals and the mechanism for their storage, release and inactivation |
1971 | Ulf von Euler | U.S. | Discoveries concerning the mechanisms of the action of hormones |
1972 | Gerald Maurice Edelman | U.S. | Research on the chemical structure of antibodies |
1972 | Rodney Robert Porter | U.K. | Research on the chemical structure of antibodies |
1973 | Karl von Frisch | Austria | Discoveries in animal behaviour patterns |
1973 | Konrad Lorenz | Austria | Discoveries in animal behaviour patterns |
1973 | Nikolaas Tinbergen | U.K. | Discoveries in animal behaviour patterns |
1974 | Albert Claude | U.S. | Research on the structural and functional organisation of cells |
1974 | Christian René de Duve | Belgium | Research on the structural and functional organisation of cells |
1974 | George E. Palade | U.S. | Research on the structural and functional organisation of cells |
1975 | David Baltimore | U.S. | Interaction between tumour viruses and the genetic material of the cell |
1975 | Renato Dulbecco | U.S. | Interaction between tumour viruses and the genetic material of the cell |
1975 | Howard Martin Temin | U.S. | Interaction between tumour viruses and the genetic material of the cell |
1976 | Baruch S. Blumberg | U.S. | Studies of the origin and spread of infectious diseases |
1976 | D. Carleton Gajdusek | U.S. | Studies of the origin and spread of infectious diseases |
1977 | Roger Guillemin | U.S. | Research on pituitary hormones |
1977 | Andrew Victor Schally | U.S. | Research on pituitary hormones |
1977 | Rosalyn Yalow | U.S. | Development of radioimmunoassay |
1978 | Werner Arber | Switzerland | Discovery and application of enzymes that fragment DNA |
1978 | Daniel Nathans | U.S. | Discovery and application of enzymes that fragment DNA |
1978 | Hamilton Othanel Smith | U.S. | Discovery and application of enzymes that fragment DNA |
1979 | Allan MacLeod Cormack | U.S. | Development of the CAT scan |
1979 | Godfrey N.Hounsfield | U.K. | Development of the CAT scan |
1980 | Baruj Benacerraf | U.S. | Investigations of genetic control of the response of the immune system to foreign substances |
1980 | Jean Dausset | France | Investigations of genetic control of the response of the immune system to foreign substances |
1980 | George Davis Snell | U.S. | Investigations of genetic control of the response of the immune system to foreign substances |
1981 | David Hunter Hubel | U.S. | Processing of visual information by the brain |
1981 | Roger Wolcott Sperry | U.S. | Functions of the cerebral hemispheres |
1981 | Torsten Nils Wiesel | Sweden | Processing of visual information by the brain |
1982 | Sune K. Bergström | Sweden | Biochemistry and physiology of prostaglandins |
1982 | Bengt Ingemar Samuelsson | Sweden | Biochemistry and physiology of prostaglandins |
1982 | John Robert Vane | U.K. | Biochemistry and physiology of prostaglandins |
1983 | Barbara McClintock | U.S. | Discovery of mobile plant genes that affect heredity |
1984 | Niels K. Jerne | Denmark | Theory and development of a technique for producing monoclonal antibodies |
1984 | Georges J.F. Köhler | West Germany | Theory and development of a technique for producing monoclonal antibodies |
1984 | César Milstein | Argentina | Theory and development of a technique for producing monoclonal antibodies |
1985 | Michael S. Brown | U.S. | Discovery of cell receptors relating to cholesterol metabolism |
1985 | Joseph L. Goldstein | U.S. | Discovery of cell receptors relating to cholesterol metabolism |
1986 | Stanley Cohen | U.S. | Discovery of chemical agents that help regulate the growth of cells |
1986 | Rita Levi-Montalcini | Italy | Discovery of chemical agents that help regulate the growth of cells |
1987 | Tonegawa Susumu | Japan | Study of genetic aspects of antibodies |
1988 | Sir James W. Black | U.K. | Development of new classes of drugs for combating disease |
1988 | Gertrude Belle Elion | U.S. | Development of new classes of drugs for combating disease |
1988 | George Herbert Hitchings | U.S. | Development of new classes of drugs for combating disease |
1989 | J. Michael Bishop | U.S. | Study of cancer-causing genes (oncogenes) |
1989 | Harold Varmus | U.S. | Study of cancer-causing genes (oncogenes) |
1990 | Joseph E. Murray | U.S. | Development of kidney and bone marrow transplants |
1990 | E. Donnall Thomas | U.S. | Development of kidney and bone marrow transplants |
1991 | Erwin Neher | Germany | Discovery of how cells communicate, as related to diseases |
1991 | Bert Sakmann | Germany | Discovery of how cells communicate, as related to diseases |
1992 | Edmond H. Fischer | U.S. | Discovery of the class of enzymes called protein kinases |
1992 | Edwin Gerhard Krebs | U.S. | Discovery of the class of enzymes called protein kinases |
1993 | Richard J. Roberts | U.K. | Discovery of "split," or interrupted, genetic structure |
1993 | Phillip A. Sharp | U.S. | Discovery of "split," or interrupted, genetic structure |
1994 | Alfred G. Gilman | U.S. | Discovery of cell signalers called G-proteins |
1994 | Martin Rodbell | U.S. | Discovery of cell signalers called G-proteins |
1995 | Edward B. Lewis | U.S. | Identification of genes that control the body's early structural development |
1995 | Christiane Nüsslein-Volhard | Germany | Identification of genes that control the body's early structural development |
1995 | Eric F. Wieschaus | U.S. | Identification of genes that control the body's early structural development |
1996 | Peter C. Doherty | Australia | Discovery of how the immune system recognises virus-infected cells |
1996 | Rolf M. Zinkernagel | Switzerland | Discovery of how the immune system recognises virus-infected cells |
1997 | Stanley B. Prusiner | U.S. | Discovery of the prion, a type of disease-causing protein |
1998 | Robert F. Furchgott | U.S. | Discovery that nitric oxide (NO) acts as a signalling molecule in the cardiovascular system |
1998 | Louis J. Ignarro | U.S. | Discovery that nitric oxide (NO) acts as a signalling molecule in the cardiovascular system |
1998 | Ferid Murad | U.S. | Discovery that nitric oxide (NO) acts as a signalling molecule in the cardiovascular system |
1999 | Günter Blobel | U.S. | Discovery that proteins have signals governing cellular organisation |
2000 | Arvid Carlsson | Sweden | Discovery of how signals are transmitted between nerve cells in the brain |
2000 | Paul Greengard | U.S. | Discovery of how signals are transmitted between nerve cells in the brain |
2000 | Eric Kandel | U.S. | Discovery of how signals are transmitted between nerve cells in the brain |
2001 | Leland H. Hartwell | U.S. | Discovery of key regulators of the cell cycle |
2001 | R. Timothy Hunt | U.K. | Discovery of key regulators of the cell cycle |
2001 | Sir Paul M. Nurse | U.K. | Discovery of key regulators of the cell cycle |
2002 | Sydney Brenner | U.K. | Discoveries concerning genetic regulation of organ development and programmed cell death (apoptosis) |
2002 | H. Robert Horvitz | U.S. | Discoveries concerning genetic regulation of organ development and programmed cell death (apoptosis) |
2002 | John E. Sulston | U.K. | Discoveries concerning genetic regulation of organ development and programmed cell death (apoptosis) |
2005 | Barry J. Marshall | Australia | Discovery of the bacterium Helicobacter pylori and its role in gastritis and peptic ulcer disease |
2005 | J. Robin Warren | Australia | Discovery of the bacterium Helicobacter pylori and its role in gastritis and peptic ulcer disease |
2006 | Andrew Z. Fire | U.S | Discovery of RNA interference gene silencing by double-stranded RNA |
2006 | Craig C. Mello | U.S. | Discovery of RNA interference gene silencing by double-stranded RNA |
2007 | Mario R. Capecchi | U.S. | Discovery of principles for introducing specific gene modifications in mice by the use of embryonic stem cells |
2007 | Sir Martin J. Evans | U.K. | Discovery of principles for introducing specific gene modifications in mice by the use of embryonic stem cells |
2007 | Oliver Smithies | U.S. | Discovery of principles for introducing specific gene modifications in mice by the use of embryonic stem cells |
2008 | Françoise Barré-Sinoussi | France | Discovery of human immunodeficiency virus |
2008 | Luc Montagnier | France | Discovery of human immunodeficiency virus |
2008 | Harald zur Hausen | Germany | Discovery of human papilloma viruses causing cervical cancer |
2009 | Elizabeth H. Blackburn | U.S. | Discovery of how chromosomes are protected by telomeres and the enzyme telomerase |
2009 | Carol W. Greider | U.S. | Discovery of how chromosomes are protected by telomeres and the enzyme telomerase |
2009 | Jack W. Szostak | U.S. | Discovery of how chromosomes are protected by telomeres and the enzyme telomerase |
2010 | Robert.G. Edwards | U.K. | Development of in vitro fertilisation |
2011 | Bruce A. Beutler | U.S. | Discoveries concerning the activation of innate immunity |
2011 | Jules A. Hoffmann | Luxembourg/France | Discoveries concerning the activation of innate immunity |
2011 | Ralph M. Steinman | Canada | Discovery of the dendritic cell and its role in adaptive immunity |
2012 | Sir John Bertrand Gurdon | U.K. | Discovery that mature cells can be reprogrammed to become pluripotent |
2012 | Shinya Yamanaka | Japan | Discovery that mature cells can be reprogrammed to become pluripotent |
2013 | James E. Rothman | U.S. | Discoveries of machinery regulating vesicle traffic, a major transport system in cells |
2013 | Randy W. Schekman | U.S. | Discoveries of machinery regulating vesicle traffic, a major transport system in cells |
2013 | Thomas C. Südhof | Germany/U.S. | Discoveries of machinery regulating vesicle traffic, a major transport system in cells |
2014 | Edvard I. Moser | Norway | Discoveries of cells that constitute a positioning system in the brain |
2014 | May-Britt Moser | Norway | Discoveries of cells that constitute a positioning system in the brain |
2014 | John O'Keefe | U.S. | Discoveries of cells that constitute a positioning system in the brain |
2015 | William C. Campbell | Ireland | Discoveries concerning a novel therapy against infections caused by roundworm parasites |
2015 | Ōmura Satoshi | Japan | Discoveries concerning a novel therapy against infections caused by roundworm parasites |
2015 | Tu Youyou | China | Discoveries concerning a novel therapy against malaria |
2016 | Yoshinori Ohsumi | Japan | Discoveries of mechanisms for autophagy |
2017 | Jeffrey C. Hall | U.S | Discoveries of molecular mechanisms controlling the circadian rhythm |
2017 | Michael Rosbash | U.S | Discoveries of molecular mechanisms controlling the circadian rhythm |
2017 | Michael W. Young | U.S | Discoveries of molecular mechanisms controlling the circadian rhythm |
2018 | James P. Allison | U.S | Discovery of cancer therapy by inhibition of negative immune regulation |
2018 | Honjo Tasuku | Japan | Discovery of cancer therapy by inhibition of negative immune regulation |
2019 | William G. Kaelin Jr | U.S | Discoveries of how cells sense and adapt to oxygen availability |
2019 | Sir Peter J. Ratcliffe | U.K. | Discoveries of how cells sense and adapt to oxygen availability |
2019 | Gregg L. Semenza | U.S. | Discoveries of how cells sense and adapt to oxygen availability |
2020 | Harvey J. Alter | U.S | Discovery of Hepatitis C virus |
2020 | Michael Houghton | U.K. | Discovery of Hepatitis C virus |
2020 | Charles M. Rice | U.S. | Discovery of Hepatitis C virus |
2021 | David Julius | U.S. | Discoveries of receptors for temperature and touch |
2021 | Ardem Patapoutian | Leb./U.S. | Discoveries of receptors for temperature and touch |
2022 | Svante Pääbo | Sweden | Discoveries concerning the genomes of extinct hominins and human evolution |
2023 | Katalin Karikó | Hungary | Discoveries concerning nucleoside base modifications that enabled the development of effective mRNA vaccines against COVID-19 |
2023 | Drew Weissman | U.S. | Discoveries concerning nucleoside base modifications that enabled the development of effective mRNA vaccines against COVID-19 |
2024 | Victor Ambros | U.S. | Discovery of microRNA and its role in post-transcriptional gene regulation |
2024 | Gary Ruvkun | U.S. | Discovery of microRNA and its role in post-transcriptional gene regulation |
2003 | Paul LauterbuR | U.S. | Development of magnetic resonance imaging (MRI) |
2003 | Sir Peter Mansfield | U.K. | Development of magnetic resonance imaging (MRI) |
2004 | Richard Axel | U.S. | Discovery of odorant receptors and the organisation of the olfactory system |
2004 | Linda B. Buck | U.S. | Discovery of odorant receptors and the organisation of the olfactory system |
The Nobel Prize was not awarded on nine occasions: in 1915, 1916, 1917, 1918, 1921, 1925, 1940, 1941 and 1942.
Here are some interesting facts about the Nobel Prize in the category of Physiology or Medicine:
Fact No. 1:
Among the 115 times/ 229 laureates in the category of Physiology or Medicine, 13 were women laureates.
Fact No. 2:
The Nobel Prize in the category of Physiology or Medicine 2025 will be announced on Monday, 6th October 2025, at 11:30 CEST (Central European Summer Time) at the earliest.
Fact No. 3:
Sir Frederick Grant Banting was a Canadian pharmacologist, orthopedist, and field surgeon. He was the youngest medicine laureate to receive the Nobel Prize at the age of 31 in the category of Physiology or Medicine in 1923 for the discovery of insulin.
Fact No. 4:
Francis Peyton Rous ForMemRS was an American pathologist who was awarded the Nobel Prize at the age of 87 for his discovery of tumour-inducing viruses. He was considered the oldest medicine laureate.
Fact No. 5:
Barbara McClintock was an American scientist and cytogeneticist who was awarded the 1983 Nobel Prize for her discovery of mobile plant genes that affect heredity.
She was the only woman who received an unshared Nobel Prize among 13 women laureates.
Fact No. 6:
According to the will of Swedish inventor and industrialist Alfred Bernhard Nobel, each Nobel Prize consists of
Fact No. 7:
Posthumous Awards: Before 1974, the Posthumous Awards were only awarded posthumously twice.
Fact No. 8:
Out of the 229 Nobel laureates in Physiology or Medicine, Americans represent the majority of awardees with 104 laureates, followed by the U.K. with 31 laureates
and Germany with 17 laureates.
Fact No. 9:
Many Nobel Prize-winning discoveries in Physiology or Medicine have relied on animal models. According to Understanding Animal Research, over 190 out of 216 Nobel Prizes awarded up to 2017 involved work that depended on animal research. Animal models used include Cattle, Chickens, Dogs, Fruit flies, Mice, Monkeys, Rats, Sheep and more.
Fact No. 10:
In 1939, Gerhard Johannes Paul Domagk, a German pathologist and bacteriologist, was awarded the Nobel Prize in the category of Physiology or Medicine. Due to some political circumstances in Nazi Germany at the time, Domagk was forced to decline the Nobel Prize.
The Nobel Prize in the category of Physiology or Medicine marks the most impactful and pioneering discoveries in medical science. This Nobel Award not only celebrates individual excellence but also highlights advancements that benefit humanity as a whole.
Each Nobel Prize is an award that serves as a reminder of the power of scientific research to transform human lives, inspire future innovations, and build a healthier world.
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For further information on the Legacy of the Nobel Prize, Nobel Award Winners and Nobel Prize in Physiology and Medicine, read our blogs.
The Nobel Prize in Physiology and Medicine in 2023 was awarded to Katalin Karikó and Drew Weissman for their work on mRNA technology.
The Nobel Prize highlights groundbreaking research that has transformed medical science and improved human health worldwide.
The first Nobel Prize in the Physiology or Medicine category was awarded to Emil Adolf von Behring, a German Physiologist who received it in 1901 for his work on serum therapy.
A total of 115 Nobel Prizes have been awarded in the category of Physiology or Medicine between 1901 and 2024.
As Alfred Nobel stated in his will, the first week of October each year, the recipients of the Nobel Prize in Physiology or Medicine, Physics, Chemistry, Literature and Peace are announced.
Since 1901, it has been the Nobel Assembly at Karolinska Institute, a research-led medical university in Solna and one of the foremost medical research institutes globally, that selects the recipients of the Nobel Prize in Physiology or Medicine.
To get nominated for a Nobel Prize in Physiology or Medicine
No. There is no such distinction based on age, race, sex of the individual, nationality, or the institution they work for. Every year, each nomination or recipients of the Nobel Prize are considered based on the discovery that would have a benefit to humankind.
The selection criteria for the Nobel Prize in Physiology or Medicine were clearly outlined in Alfred Nobel's will. These criteria include:
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