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Since 1901, the Nobel Prize has been awarded to top scientists who have excelled in their fields in the previous year, to those who have done
research which benefits mankind the most.The Swedish chemist and industrial magnate Alfred Nobel (1833-1896) made a name for himself with the invention of dynamite, in the process making a fortune. In his last will and testament, he bequeathed some of that fortune to the founding of a foundation. The Nobel Prize is the oldest award for scientific achievement. It has been awarded since 1901, always on the anniversary of Nobel’s death, December 10. With the exception of a few years (during wars), Nobel prizes have been awarded ever since. Besides a financial reward, a gold medal and certificate are also presented.
The Nobel Peace Prize is awarded by the Norwegian king in Oslo, while the prizes for culture and the sciences are given by the Swedish king in Stockholm.
The financial prize, part of the overall award, is financed through annual interest earned on the estate of the Nobel Foundation. From 1970, when the award was around 288,000 German marks (DM), the prize rose to 1.8 million DM in 1999.
For scientists, the Nobel prize is a little like being knighted. It is one of, if not the, highest honor that can be bestowed on a scientist.
Year | Name | Nationality | Work | ||
1901 | Jacobus Henricus van ´t Hoff | Netherlands | Discovery of the law of chemical dynamics and osmotic pressure of solutions | ||
1902 | Emil H. Fischer | Germany | Syntheses in the field of sugars and purine bases | ||
1903 | Svante A. Arrhenius | Sweden | Theory of electrolytic dissociation | ||
1904 | Sir William Ramsay | G. Britain | Research on the atmosphere and the discovery of noble gases | ||
1905 | Adolf Ritter von Baeyer | Germany | Organic pigments and hydroaromatic compounds | ||
1906 | Henri Moissan | France | Research on and isolation of flourine | ||
1907 | Eduard Buchner | Germany | Biochemical studies, discovery of cell tissue fermentation | ||
1908 | Sir Ernest Rutheford | G. Britain | Element disintegration, chemistry of radioactive materials | ||
1909 | Wilhwlm Ostwald | Germany | Catalysis, chemical equilibrium and reaction speed | ||
1910 | Otto Wallach | Germany | Alicyclic compounds | ||
1911 | Marie Curie | France, Poland | Discovery of radium and polonium | ||
1912 | Victor Grignard,
Paul Sabatier |
France | Grignard reagents, hydration of organic compounds in the presence of slightly soluble metals | ||
1913 | Alfred Werner | Switzerland | Bonding of atoms in molecules (inorganic chemistry) | ||
1914 | Theodore W. Richards | USA | Determination of atomic mass | ||
1915 | Richard Martin Willstätter | Germany | Research on plant pigments, especially chlorophyll | ||
1916 | Not given | ||||
1917 | Not given | ||||
1918 | Fritz Haber | Germany | Synthesis of ammonia from elements | ||
1919 | Neudělena | ||||
1920 | Walther H. Nernst | Germany | Thermodynamic studies | ||
1921 | Frederick Soddy | G. Britain | Chemistry of radioactive substances, occurrence and nature of isotopes | ||
1922 | Francis W. Aston | G. Britain | Discovery of a great number of isotopes, spectrograhpic atomic mass | ||
1923 | Fritz Pregl | Austria | Microanalysis of organic materials | ||
1924 | Neudělena | ||||
1925 | Richard A. Zeigmondy | Germany,Austria | Colloidal chemistry (ultramicroscope) | ||
1926 | Theodor Svedberg | Sweden | Dispersal systems (ultracentrifuge) | ||
1927 | Heinrich O. Wieland | Germany | Production of gall bladder acids | ||
1928 | Adolf Windhaus | ||||
1929 | Hans von Euler Chelpin | Sweden,Germany | Studies on the fermentation of sugars and enzymes | ||
Artur Harden | G. Britain | ||||
1930 | Hans Fisher | Germany | Work with blood pigments and plant pigments, synthesis of hemine | ||
1931 | Friedrich Bergius | Germany | Development of experiments and techniques of high pressure chemistry | ||
1932 | Irwing Langmuir | USA | Chemistry of surface activity | ||
1933 | Neudělena | ||||
1934 | Harold C. Urey | USA | Discovery of heavy hydrogen (deuterium) | ||
1935 | Frédéric Joliot | France | Synthesis of new radioactive elements (artificial radioactivity) | ||
Irene Joliot-Curie | |||||
1936 | Peter J.W. Debye | Germany, Nl | Research on dipole moments and diffraction of X-rays and gamma rays in gases | ||
1937 | Sir Walter H. Haworth | G. Britain | Research on hydrocarbons and Vitamin C | ||
Paul Karrer | Switzerland | Research on carotines and flavines and Vitamins A and B2 | |||
1938 | Richard Kuhn | Germany | Work on carotines and vitamins | ||
1939 | Adolf F.J. Butenandt | Germany | Studies on sexual hormones | ||
Leopold Ruzicka | Switzerland | Studies on polymethylene and higher terpenes | |||
1940 | Not given | ||||
1941 | Not given | ||||
1942 | Not given | ||||
1943 | George de Hevesy | Hungary | Use of isotopes as indicators in the study of chemical processes | ||
1944 | Otto Hahn | Germany | Discovery of the splitting of the nucleus of the atom | ||
1945 | Arturi I Virtanen | FN | Discoveries in the fields of agriculture and food chemistry, methods of conservation of foods | ||
1946 | John H. Northrop | USA | Isolation of enzymes and viral proteins in pure form | ||
Wendell Meredith Stanley | |||||
James B. Sumner | Crystallization of enzymes | ||||
1947 | Sir Robert Robinson | G. Britain | Alkaloid research | ||
1948 | Arne W.K. Tiselius | Sweden | Electrophoretic and adsorption analyses, discovery of serum proteins | ||
1949 | William F. Giauque | USA | Contributions to chemical thermodynamics, characteristics at extremely low temperatures (adiabatic demagnetization) | ||
1950 | Kurt Alder | Germany | Development of synthetic dienes | ||
Otto P.H. Diels | |||||
1951 | Edwin M. MCMillan | USA | Discovery of chemical transuranium | ||
Glenn Th. Seaborg | |||||
1952 | Archer J.P. Martin | G. Britain | Invention of chromotography and isolation with the help of chromatography | ||
Richard L.M. Synge | |||||
1953 | Hermann Staudinger | Germany | Discoveries in the field of macromolecular chemistry | ||
1954 | Linus Carl Pauling | USA | Research on the nature of chemical bonds | ||
1955 | Vincent du Vigneaud | USA | Synthesis of polypeptidic hormones | ||
1956 | Sir Cyril N. Hinshelwood | G. Britain | Mechanisms of chemical reactions | ||
Nikolaj Semjonov | USSR | ||||
1957 | Sir Alexander R. Todd | G. Britain | Studies of nucleotides and their coenzymes | ||
1958 | Frederick Sanger | G. Britain | Structure of proteins, especially insulin | ||
1959 | Jaroslav Heyrovský | Czecho-slovakia | Polarography | ||
1960 | William F. Libby | USA | Use of the C14 isotope in age determination | ||
1961 | Melvin Calvin | USA | Research on the assimilation of acidic carbonic plants (photosynthesis) | ||
1962 | John Cowdery Kendrew | G. Britain | Studies on the structure of globulin proteins | ||
Max Ferdinand Perutz | G.Britain, Austria | ||||
1963 | Giulio Natta | Italy | Chemistry and technology of high polymeric materials | ||
Karl Ziegler | Germany | ||||
1964 | Dorothy Crawfoot-Hodgkin | G. Britain | Determination of the structure of biologically important materials with the help of X-ray equipment | ||
1965 | Robert Burns Woodward | USA | Synthesis of natural materials | ||
1966 | Robert S. Mulliken | USA | Work on chemical bonds and the introduction of electrons into molecules – the theory of electron orbitals | ||
1967 | Manfred Eigen | Germany | Research on very fast chemical reactions | ||
George Porter | G. Britain | ||||
Ronald G.W.Norrish | |||||
1968 | Lars Onsager | USA, Norway | Studies on thermodynamic irreversible processes | ||
1969 | Odd Hassel | Norway | Conformation theory | ||
Derek H. Barton | G. Britain | ||||
1970 | Luis F. Leloir | Argentina | Discovery of sugars containing nucleotides and their functions in the biosynthesis of hydrocarbons | ||
1971 | Gerhard Heizberg | Canada | Electron structure and geometric models, especially free radicals (molecule spectroscopy) | ||
1972 | Christian B. Anfinsen | USA | Studies on ribonucleases | ||
Stanford Moore | Discovery of the active centre of ribonucleases | ||||
William H. Stein | |||||
1973 | Ernst Otto Fischer | Germany | Chemistry of sandwich metalorganic compounds | ||
Geoffrey Wilkinson | G. Britain | ||||
1974 | Paul J. Flory | USA | Physical chemistry of macromolecules | ||
1975 | John W. Comforth | G. Britain | Stereochemistry of enzymatically catalysed reactions | ||
Vladimír Prelog | Switzerland, Yug. | Research on stereochemistry of organic molecules and their reactions | |||
1976 | William N. Lipscomb | USA | Structure of boran | ||
1977 | Ilja Prigogin | Belgium | Contributions to thermodymanic irreversible processes, especially to the theory of dissipated structures | ||
1978 | Peter D. Mirtchell | G. Britain | Research on biological transmission of energy, development of chemiosmotic theory | ||
1979 | Georg Wittig | Germany | Synthesis of organic compounds boron and phosphorus | ||
Herbert C. Brown | USA | ||||
1980 | Paul Berg | USA | Work in the biochemistry of nucleic acids, especially hybrid DNA (technology of gene surgery) | ||
Walter Gilbert | Determination of the order of bases in nucleic acids | ||||
Frederick Sanger | G. Britain | ||||
1981 | Kenichi Fukui | Japan | Theory of the progress of chemical reactions (theory of outer orbitals) | ||
Roald Hoffman | USA | ||||
1982 | Aaron Klug | G. Britain | Development of crystallography methods for the decoding of biologically important complexes of nucleic acids and proteins | ||
1983 | Henry Taube | Canada | Reaction mechanisms of electrons, especially in metal complexes | ||
1984 | Robert Bruce Merrifield | USA | Methods of isolation of peptides and proteins | ||
1985 | Herbert A. Hauptman | USA | Development of direct methods for the determination of crystalline structures | ||
Jerome Karle | |||||
1986 | John C. Polanyi | Canada | Dynamics of basic chemical processes | ||
Dudley R. Herschbach | USA | ||||
Yuan Tseh Lee | |||||
1987 | Donald J. Cram | USA | Development of a molecule with structurally specific and various uses of high specificity | ||
Charles J. Pedersen | |||||
Jean-Marie Lehn | France | ||||
1988 | Johann Diesenhofer | Germany | Determination of three dimensional structures of the reaction centre of photosynthesis | ||
Robert Huber | |||||
Hartmut Michel | |||||
1989 | Sidney Altman | Canada | Discovery of the catalytic characteristics of RNA | ||
Thomas Robert Cech | USA | ||||
1990 | Elias James Corey | USA | Development of new methods of synthesising complex natural materials (retrosynthetic analysis) | ||
1991 | Elias Robert Ernst | Switzerland | Development of highly specialised nuclear resonance spectography (NMR) | ||
1992 | Rudolph A. Marcus | USA | Contributions to the theory of electron transfer | ||
1993 | Kary Banks Mullis | USA | Discovery of the chain reaction of polymerases (PCR), with whose help copies of DNA can be made | ||
Michael Smith | CAN | Development of locally specific mutagenesis | |||
1994 | George A. Olah | USA | Cations of carbons | ||
1995 | Paul Crutzen | Netherlands | Revolutionary discoveries about the mechanisms which lead to the destruction of the ozone layer in higher levels of the atmosphere | ||
Mario Molina | Mexico | ||||
Frank Sherwood Rowland | USA | ||||
1996 | Robert F. Curl, Jr | USA | For the discovery of fulerene | ||
Sir Harold W. Croto | G. Britain | ||||
Richard E. Smalley | USA | ||||
1997 | Paul D. Boyer | USA | Explanation of enzymatic mechanisms which lead to the synthesis of ATP | ||
John E. Walker | G. Britain | ||||
Jens C. Skou | Denmark | First discovery of enzyme transport of ions: Na+, K+, ATP | |||
1998 | Walter Kohn | USA | Discovery of theory of functional approximation | ||
John A. Pople | G. Britain USA | Development of a way to calculate in quantitative chemistry (Gauss computer program) – methods by which chemical reactions can be exactly determined | |||
1999 | Ahmed H. Zewail | Egypt | Work on femtosecund spectroscopy | ||
2000 | Alan J. Heeger | For the discovery of conductive polymers | |||
Alan G. Macdiamid | |||||
Hideri Shirakawa |
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Chemical processes known as such were first used long before the mechanisms which caused them to function were known. Many of the developed cultures of the ancient world used even complicated processes and chemical reactions to solve the various and complex dilemmas they faced.
The isolation of copper 5000 years ago may be improbable, but in 3200 B.C. the Egyptians were able to isolate the substance from its ores, with the help of brown coal.
Most of all, the Chinese and Greeks accelerated the development of the natural sciences.
Among other notable accomplishments, many of these ancient peoples were able to come up with complex models of how our world fit together, of what it was composed. The advanced nature of many of these theories can be seen in the fact that it often took later generations many years of scientific inquiry before they were finally able to, often through experiment and calculation, either verify or refute the theories that had been proposed.
The Middle Ages saw a slowdown in scientific advancement, because the Church and its often strong, even overbearing dogmas, refused to allow any doubt to be shed on the generally accepted truths that had been proposed.
At the end of the Middle Ages, however, development began to accelerate once again, and from that time forward, the avalanche of scientific knowledge has only gained strength. Let us reflect on the fact that around the year 1800, there were only a few elements known. In the 200 years that were to follow, however, this number rose to 103. It should be added, however, that this is very likely not a final tally, and that not all existing elements have as yet been discovered. Some of these elements, it should be said, are man-made, and do not occur in nature under normal conditions.
Of course, progress, scientific or otherwise, has to be driven by people, in all of the natural sciences as well as chemistry. Great and revolutionary chemists have walked this Earth, and they have been able to change our world, accelerating its development, with their discoveries. and other scientists from other natural science fields have helped along the way, discovering, rediscovering, probing and studying reality, either proving or refuting previously held theories and hypotheses.
In these modern times, the scientists whose revolutionary accomplishments and discoveries make the most lasting impressions on our society receive the Nobel Prize. These awards are given every year, and represent the highest honour that a scientist, researcher or other expert can attain.
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