A | B |
1901 | Jacobus Henricus Van't Hoff (chemical dynamics and osmotic pressure) |
1902 | Hermann Emil Fischer (sugar and purine synthesis) |
1903 | Svante August Arrhenius (electrolytic theory of dissociation) |
1904 | Sir William Ramsay (noble gases) |
1905 | Johann Friedrich Wilhelm Adolf von Baeyer (organic dyes and hydroaromatic compounds) |
1906 | Henri Moissan (fluorine and electric furnace) |
1907 | Eduard Buchner (cell free fermentation) |
1908 | Lord Ernest Rutherford (chemistry of radioactive substances) |
1909 | Wilhelm Ostwald (catalysis, chemical equilibria, and reaction rates) |
1910 | Otto Wallach (alicyclic compounds) |
1911 | Marie Curie (radium and polonium) |
1912 | Victor Grignard (Grignard reagent) and Paul Sabatier (hydrogenating organic compounds in the presence of finely disintegrated metals) |
1913 | Alfred Werner (linkage of atoms in molecules) |
1914 | Theodore William Richards (accurate determinations of various atomic weights) |
1915 | Richard Martin Willstatter (plant pigments, especially chlorophyll) |
1916 | NONE |
1917 | NONE |
1918 | Fritz Haber (synthesis of ammonia) |
1919 | NONE |
1920 | Walther Hermann Nernst (thermochemistry) |
1921 | Frederick Soddy (nature of isotopes) |
1922 | Francis William Aston (discovery of isotopes, and "whole-number" rule) |
1923 | Fritz Pregl (micro-analysis of organic substances) |
1924 | NONE |
1925 | Richard Adolf Zsigmondy (heterogenous nature of colloid solutions) |
1926 | The (Theodor) Svedberg ("disperse systems") |
1927 | Heinrich Otto Wieland (bile acids) |
1928 | Adolf Otto Reinhold Windaus (sterols and vitamins) |
1929 | Sir Arthur Harden and Hans Karl August Simon Von Euler-Chelpin (fermentation of sugars) |
1930 | Hans Fischer (synthesis of haemin and work on haemin and chlorophyll) |
1931 | Carl Bosch and Friedrich Bergius (chemical high pressure methods) |
1932 | Irving Langmuir (surface chemistry) |
1933 | NONE |
1934 | Harold Clayton Urey (heavy hydrogen) |
1935 | Frederic Joliot and Irene Joliot-Curie (synthesis of new radioactive elements) |
1936 | Petrus (Peter) Josephus Wilhelmus Debye (dipole moments and x-ray diffraction in gases) |
1937 | Sir Walter Norman Hayworth (carbohydrates and vitamin C) and Paul Karrer (carotenoids, flavins, and vitamins A and B2) |
1938 | Richard Kuhn (carotenoids and vitamins) |
1939 | Adolf Friedrich Johann Butenandt (sex hormones) and Leopold Ruzicka (polymethylenes and higher turpenes) |
1940 | NONE |
1941 | NONE |
1942 | NONE |
1943 | George de Hevesy (using isotopes as tracers in study of chemical processes) |
1944 | Otto Hahn (fission of heavy nuclei) |
1945 | Artturi Ilmari Virtanen (fodder preservation method) |
1946 | James Batcheller Sumner (discovered that enzymes can be crystallized) and John Howard Northrop and Wendell Meredith Stanley (preparation of pure enzymes and viral proteins) |
1947 | Sir Robert Robinson (plant products of biological importance, especially the alkaloids) |
1948 | Arne Wilhelm Kaurin Tiselius (complex nature of serum proteins) |
1949 | William Francis Giauque (behavior of substances at extremely low temperatures) |
1950 | Otto Paul Hermann Diels and Kurt Alder (diene synthesis) |
1951 | Edwin Mattison McMillan and Glenn Theodore Seaborg (transuranium elements) |
1952 | Archer John Porter Martin and Richard Laurence Millington Synge (partition chromatography) |
1953 | Hermann Staudinger (macromolecular chemistry) |
1954 | Linus Carl Pauling (nature of the chemical bond) |
1955 | Vincent du Vigneaud (first synthesis of a polypeptide hormone) |
1956 | Sir Cyril Norman Hinshelwood and Nikolay Nikolaevich Semenov (mechanism of chemical reactions) |
1957 | Lord Alexander R. Todd (nucleotides and nucleotide co-enzymes) |
1958 | Frederick Sanger (structure of insulin) |
1959 | Jaroslav Heyrovsky (polarographic methods of analysis) |
1960 | Willard Frank Libby (carbon dating) |
1961 | Melvin Calvin (carbon dioxide assimilation in plants) |
1962 | Max Ferdinand Perutz and Sir John Cowdery Kendrew (structures of globular proteins) |
1963 | Karl Ziegler and Giulio Natta (chemistry and technology of high polymers) |
1964 | Dorothy Crowfoot Hodgkin (X-ray structures of important biochemical substances) |
1965 | Robert Burns Woodward (organic synthesis) |
1966 | Robert S. Mulliken (structure based on molecular orbital method) |
1967 | Manfred Eigen, Ronald George Wreyford Norrish, and Lord George Porter (extremely fast chemical reactions) |
1968 | Lars Onsager (reciprocal relations bearing his name, fundamental to thermodynamics of irreversible processes) |
1969 | Sir Derek H. R. Barton and Odd Hassel (concept of conformation and its application in chemistry) |
1970 | Luis F. Leloir (sugar nucleotides) |
1971 | Gerhard Herzberg (electronic structure and geometry of molecules) |
1972 | Christian B. Anfinsen, Stanford Moore, and William H. Stein (structure and function of ribonuclease) |
1973 | Ernst Otto Fischer and Sir Geoffrey Wilkinson (organometallic "sandwich" compounds) |
1974 | Paul J. Flory (physical chemistry of the macromolecules) |
1975 | Sir John Warcup Cornforth (stereochemistry of enzyme-catalyzed reactions) and Vladimir Prelog (stereochemistry of organic molecules and reactions) |
1976 | William Lipscomb (structure of boranes) |
1977 | Ilya Prigogine (theory of dissipative structures) |
1978 | Peter D. Mitchell (chemiosmotic theory) |
1979 | Herbert C. Brown and Georg Wittig (use of boron- and phosphorus-containing compounds, respectively) |
1980 | Paul Berg (recombinant DNA) and Walter Gilbert and Frederick Sanger (DNA sequencing) |
1981 | Kenichi Fukui and Roald Hoffman (theories on the course of chemical reactions) |
1982 | Sir Aaron Klug (crystallographic electron microscopy) |
1983 | Henry Taube (electron transfer reactions) |
1984 | Robert Bruce Merrifield (chemical synthesis on a solid matrix) |
1985 | Herbert A. Hauptman and Jerome Karle (determination of crystal structures) |
1986 | Dudley R. Herschbach, Yuan T. Lee, and John C. Polanyi (dynamics of chemical elementary processes) |
1987 | Donald J. Cram, Jean-Marie Lehn, and Charles J. Pedersen (molecules with structure-specific interactions of high selectivity) |
1988 | Johann Deisenhofer, Robert Huber, and Hartmut Michel (3D structure of a photosynthetic reaction center) |
1989 | Sidney Altman and Thomas R. Cech (catalytic properties of RNA) |
1990 | Elias James Corey (organic synthesis) |
1991 | Richard R. Ernst (high resolution NMR) |
1992 | Rudolph A. Marcus (electron transfer reactions in chemical systems) |
1993 | Kary B. Mullis (PCR) and Michael Smith (oligonucleotide-based, site-directed mutagenesis) |
1994 | George A. Olah (carbocation chemistry) |
1995 | Paul Crutzen, Mario Molina, F. Sherwood Rowland (formation and decomposition of ozone) |
1996 | Robert F. Curl, Jr., Sir Harold W. Kroto, and Richard E. Smalley (discovery of fullerenes) |
1997 | Paul D. Boyer and John E. Walker (synthesis of ATP) and Jens C. Skou (Na+, K+-ATPase) |
1998 | Walter Kohn (density-functional theory) and John A. Pople (computational methods in quantum chemistry) |
1999 | Ahmed H. Zewail (using lasers to show atoms moving during a reaction) |