Wolf Prize in Physics
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The Wolf Prize in Physics is awarded once a year by the Wolf Foundation. It is one of the six Wolf Prizes established by the Foundation and awarded since 1978; the others are in Agriculture, Chemistry, Mathematics, Medicine and Arts. The Prize is often considered the most prestigious award in physics after the Nobel Prize[1].
[edit] Laureates[2]
| Year | Name | Nationality | Citation |
|---|---|---|---|
| 1978 | Chien-Shiung Wu | for exploring the weak interaction, helping establish the precise form and the non-conservation of parity for this natural force. | |
| 1979 | George Eugene Uhlenbeck | for his discovery, jointly with the late S.A. Goudsmit, of the electron spin. | |
| Giuseppe Occhialini | for his contributions to the discoveries of electron pair production and of the charged pion. | ||
| 1980 | Michael E. Fisher Leo P. Kadanoff Kenneth G. Wilson |
for pathbreaking developments culminating in the general theory of the critical behavior at transitions between the different thermodynamic phases of matter. | |
| 1981 | Freeman J. Dyson Gerard 't Hooft Victor F. Weisskopf |
for their outstanding contributions to theoretical physics, especially in the development and application of the quantum theory of fields. | |
| 1982 | Leon M. Lederman Martin Lewis Perl |
for their experimental discovery of unexpected new particles establishing a third generation of quarks and leptons. | |
| 1983/4 | Erwin Hahn | for his discovery of nuclear spin echoes and for the phenomenon of self-induced transparency. | |
| Peter B. Hirsch | for his development of the utilization of the transmission electron microscope as a universal instrument to study the structure of crystalline matter. | ||
| Theodore H. Maiman | for his realization of the first operating laser, the pulsed three level ruby laser. | ||
| 1985 | Conyers Herring Philippe Nozieres |
for their major contributions to the fundamental theory of solids, especially of the behaviour of electrons in metals. | |
| 1986 | Mitchell J. Feigenbaum | for his pioneering theoretical studies demonstrating the universal character of non-linear systems, which has made possible the systematic study of chaos. | |
| Albert J. Libchaber | for his brilliant experimental demonstration of the transition to turbulence and chaos in dynamical systems. | ||
| 1987 | Herbert Friedman | for pioneering investigations in solar X-rays. | |
| Bruno B. Rossi Riccardo Giacconi |
for the discovery of extra-solar X-ray sources and the elucidation of their physical processes. | ||
| 1988 | Roger Penrose Stephen W. Hawking |
for their brilliant development of the theory of general relativity, in which they have shown the necessity for cosmological singularities and have elucidated the physics of black holes. In this work they have greatly enlarged our understanding of the origin and possible fate of the Universe. | |
| 1989 | No award | ||
| 1990 | Pierre-Gilles de Gennes David J. Thouless |
for a wide variety of pioneering contributions to our understanding of the organization of complex condensed matter systems, de Gennes especially for his work on macromolecular matter and liquid crystals and Thouless for his on disordered and low-dimensional systems. | |
| 1991 | Maurice Goldhaber Valentine L. Telegdi |
for their separate seminal contributions to nuclear and particle physics, particularly those concerning the weak interactions involving leptons. | |
| 1992 | Joseph H. Taylor Jr. | for his discovery of an orbiting radio pulsar and its exploitation to verify the general theory of relativity to high precision. | |
| 1993 | Benoît Mandelbrot | by recognizing the widespread occurrence of fractals and developing mathematical tools for describing them, he has changed our view of nature. | |
| 1994/5 | Vitaly L. Ginzburg | for his contributions to the theory of superconductivity and to the theory of high-energy processes in astrophysics. | |
| Yoichiro Nambu | for his contribution to elementary particle theory, including recognition of the role played by spontaneous symmetry-breaking in analogy with superconductivity theory, and the discovery of the color symmetry of the strong interactions. | ||
| 1995/6 | No award | ||
| 1996/7 | John Archibald Wheeler | for his seminal contributions to black holes physics, to quantum gravity, and to the theories of nuclear scattering and nuclear fission. | |
| 1998 | Yakir Aharonov Michael V. Berry |
for the discovery of quantum topological and geometrical phases. specifically the Aharonov-Bohm effect, the Berry phase, and their incorporation into many fields of physics. | |
| 1999 | Dan Shechtman | for the experimental discovery of quasi-crystals, non-periodic solids having long-range order, which inspired the exploration of a new fundamental state of matter. | |
| 1998 | Raymond Davis Jr. Masatoshi Koshiba |
for their pioneering observations of astronomical phenomena by detection of neutrinos, thus creating the emerging field of neutrino astronomy. | |
| 2001 | No award | ||
| 2002/3 | Bertrand I. Halperin Anthony J. Leggett |
for key insights into the broad range of condensed matter physics: Leggett on superfluidity of the light helium isotope and macroscopic quantum phenomena; and Halperin on two- dimensional melting, disordered systems and strongly interacting electrons. | |
| 2004 | Robert Brout François Englert Peter W. Higgs |
for pioneering work that has led to the insight of mass generation, whenever a local gauge symmetry is realized asymmetrically in the world of sub-atomic particles. | |
| 2005 | Daniel Kleppner | for groundbreaking work in atomic physics of hydrogenic systems, including research on the hydrogen maser, Rydberg atoms and Bose-Einstein condensation. | |
| 2006/7 | Albert Fert Peter Grünberg |
for their independent discovery of the giant magnetoresistance phenomenon (GMR), thereby launching a new field of research and applications known as spintronics, which utilizes the spin of the electron to store and transport information. | |
| 2008 | No award |
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