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The Renormalization Group and Critical Phenomena
"for his theory for critical phenomena in connection with phase
transitions"
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|
Kenneth G. Wilson |
| USA |
Cornell University
Ithaca, NY, USA |
| b. 1936 |
Autoiography
I was born 1936 in Waltham, Massachusetts, the son of E. Bright Wilson Jr.
and Emily Buckingham Wilson. My father was on the faculty in the Chemistry
Department of Harvard University; my mother had one year of graduate work
in physics before her marriage. My grandfather on my mother's side was a
professor of mechanical engineering at the Massachusetts Institute of
Technology; my other grandfather was a lawyer, and one time Speaker of the
Tennessee House of Representatives.
My schooling took place in Wellesley, Woods Hole, Massachusetts (second,
third/fourth grades in two years), Shady Hill School in Cambridge, Mass.
(from fifth to eighth grade), ninth grade at the Magdalen College School
in Oxford, England, and tenth and twelfth grades (skipping the eleventh)
at the George School in eastern Pennsylvania. Before the year in England I
had read about mathematics and physics in books supplied by my father and
his friends. I learned the basic principle of calculus from Mathematics
and Imagination by Kasner and Newman, and went of to work through a
calculus text, until I got stuck in a chapter on involutes and evolutes.
Around this time I decided to become a physicist. Later (before entering
college) I remember working on symbolic logic with my father; he also
tried, unsuccessfully, to teach me group theory. I found high school dull.
In 1952 I entered Harvard. I majored in mathematics, but studied physics
(both by intent), participated in the Putnam Mathematics competition, and
ran the mile for the track team (and crosscountry as well). I began
research, working summers at the Woods Hole Oceanographic Institution,
especially for Arnold Arons (then based at Amherst).
My graduate studies were carried out at the California Institute of
Technology. I spent two years in the Kellogg Laboratory of nuclear
physics, gaining experimental experience while taking theory courses; I
then worked on a thesis for
Murray Gell-Mann. While at Cal Tech I talked a lot with Jon Mathews,
then a junior faculty member; he taught me how to use the Institute's
computer; we also went on hikes together. I spent a summer at the General
Atomic Company in San Diego working with Marshall Rosenbluth in plasma
physics. Another summer Donald Groom (then a fellow graduate student) and
I hiked the John Muir Trail in the Sierra Nevada from Yosemite Park to Mt.
Whitney. After my third year I went off to Harvard to be a Junior Fellow
while Gell-Mann went off to Paris. During the first year of the fellowship
I went back to Cal Tech for a few months to finish my thesis. There was
relatively little theoretical activity at Harvard at the time; I went
often to M.I.T. to use their computer and eat lunch with the M.I.T. theory
group, led by Francis Low.
In 1962 I went to CERN for a calendar year, first on my Junior Fellowship
and then as a Ford Foundation fellow. Mostly, I worked but I found time to
join Henry Kendall and James Bjorken on a climb of Mt. Blanc. I spent
January through August of 1963 touring Europe.
In September of 1963 I came to Cornell as an Assistant Professor. I
received tenure as an Associate Professor in 1965, became Full Professor
in 1971 and the James A. Weeks Professor in 1974. I came to Cornell in
response to an unsolicited offer I received while at CERN; I accepted the
offer because Cornell was a good university, was out in the country and
was reputed to have a good folk dancing group, folk-dancing being a hobby
I had taken up as a graduate student.
I have remained at Cornell ever since, except for leaves and summer
visits: I spent the 1969 - 1970 academic year at the Stanford Linear
Accelerator Center, the spring of 1972 at the Institute for Advanced Study
in Princeton, the fall of 1976 at the California Institute of Technology
as a Fairchild Scholar, and the academic year 1979 - 80 at the IBM Zürich
Laboratory.
In 1975 I met Alison Brown and in 1982 we were married. She works for
Cornell Computer Services. Together with Douglas Von Houweling, then
Director of Academic Computing and Geoffrey Chester of the Physics
Department we initiated a computing support project based on a Floating
Point Systems Array Processor. I helped write the initial Fortran Compiler
for the Array Processor. Since that time I have (aside from using the
array processor myself) been studying the role of large scale scientific
computing in science and technology and the organizational problems
connected with scientific computing. At the present time I am trying to
win acceptance for a program of support for scientific computing in
universities from industry and government.
I have benefitted enormously from the high quality and selfless
cooperation of researchers at Cornell, in the elementary particle group
and in materials research; for my research in the 1960's I was especially
indebted to Michael Fisher and Ben Widom.
One other hobby of mine has been playing the oboe but I have not kept this
up after 1969.
The home base for my research has been elementary particle theory, and I
have made several contributions to this subject: a short distance
expansion for operator products presented in an unpublished preprint in
1964 and a published paper in 1969; a discussion of how the
renormalization group might apply to strong interactions, in which I
discussed all possibilities except the one (asymptotic freedom) now
believed to be correct; the formulation of the gauge theory in 1974
(discovered independently by Polyakov), and the discovery that the strong
coupling limit of the lattice theory exhibits quark confinement. I am
currently interested in trying to solve Quantum Chromodynamics (the theory
of quarks) using a combination of renormalization group ideas and computer
simulation.
I am also interested in trying to unlock the potential of the
renormalization group approach in other areas of classical and modern
physics. I have continued to work on statistical mechanics (specifically,
the Monte Carlo Renormalization Group, applied to the three dimensional
Ising model) as part of this effort.
Nobel Lecture
The Renormalization Group and Critical Phenomena
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Source:
http://nobelprize.org/nobel_prizes/physics/laureates/1982/index.html
CPH Stands
of: Creative Particle of Higgs that
propounded by Hossein Javadi in
1987
Biography

Download of GSJ;
Hossein Javadi, F. Forouzbakhsh
Oct. 28, 2008:
A New Definition for the Graviton
Mar. 21, 2006:
Logical Foundation of CPH Theory [PDF]
Persian Translation
Mar.
21, 2006: English
Experimental Foundation of CPH Theory [PDF]
Persian Translation
Mar.
21, 2006: English
Definition, Principle and Explanation of CPH Theory [PDF]
Persian Translation
Mar.
23, 2006: English
Analysis of CPH Theory [PDF]
Persian Translation
Apr.
7, 2006: English
Opinions on CPH Theory [PDF]
Persian
Translation
Apr.
7, 2006: English
Questions and Answers on CPH Theory [PDF]
Persian Translation
Apr.
11, 2006: English
Realization Hawking - End of Physics by CPH [PDF]
Persian Translation Only
Apr.
12, 2006: English
Maxwell's Equations in a Gravitational Field [PDF]
Persian Translation
Apr.
17, 2006: English
Effective Nuclear Charge [PDF]
Persian Translation
Apr. 28, 2006:
Color Charges Curve Space [PDF]
Persian Translation
May. 14,
2006:English
Speed of Light and CPH Theory
[PDF]
Persian Translation
Mar. 19, 2006:
Sub-Quantum Chromodynamics [PDF]
Mar.
19, 2006:
Color Charge/Color Magnet and CPH [PDF]
H. Poor Imani, S. Hoghoghi Esfahani:
Apr. 17, 2006:
Rotation, Time Revolution and its Biological Effect
H. Poor Imani:
Mar. 20, 2006:
Time, Revolution and Spin
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Section 1; Logical
Foundation of CPH Theory
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DOC
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Section 2; Experimental
Foundation of CPH Theory
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Section 3;
Theory of
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Section 4;
Analysis
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Section Five;
Opinions About CPH
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Section six; Questions and answers
CPH Theory
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Section Nine; Maxwell equations in
gravitational Field
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Section Ten; Effective Nuclear
Charge
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Section Eleven; Color Charges Curve
Space
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Section 12;
Speed of Light
and CPH Theory
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Time
Function and Absolute Black Hole
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H. Poor Imani: Time,
Revolution and Spin
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H. Poor Imani and Salman
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Contains: names, biographies and
lectutures
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Faster Than Light
Light that travels…
faster than light!
Before the Big Bang
Structure of Charge Particles
Move Structure of Photon
Structure of Charge Particles
Faster Than Light
Light that travels…
faster than light!
Before the Big Bang
Structure of Charge Particles
Move Structure of Photon
Structure of Charge Particles
Zero Point Energy and the Dirac Equation
[PDF]
Persian Text
Unification
and CPH Theory [PDF]
Strong Interaction and CPH Theory [PDF]
Summary of Physics Concepts [PDF]
Quantum Electrodynamics and CPH Theory [PDF]
Vocabulary of CPH Theory [PDF]
Thermodynamic Laws, Entropy and CPH Theory
[PDF]
Time Function and Absolute Black Hole [PDF]
CPH and Time [PDF]Persian
Text Only
Time Function and Work Energy Theorem [PDF]
Persian Text Only
Properties of CPH [PDF]Persian
Text Only
CPH Theory and Special Relativity [PDF]
Persian Text Only
CPH Theory and Newton's Second Law [PDF]
Persian Text Only
A New Mechanism of Higgs Bosons in Producing
Charge Particles [PDF]
Persian Text
Logical Foundation of CPH Theory [PDF]
Persian Text
Experimental Foundation of CPH Theory [PDF]
Persian Text
Definition, Principle and Explanation of CPH
Theory [PDF]
Persian Text
Analysis
of CPH Theory
Persian Text
Opinions on CPH Theory [PDF]
Persian Text
Questions
and Answers on CPH Theory [PDF]
Persian Text
Realization
Hawking - End of Physics by CPH [PDF]Persian
Text Only
Maxwell's
Equations in a Gravitational Field [PDF]
Persian Text
Effective
Nuclear Charge [PDF]
Persian Text
Color
Charges Curve Space [PDF]
Persian Text
Sub-Quantum Chromodynamics [PDF]
Color
Charge/Color Magnet and CPH [PDF]
Speed
of Light and CPH Theory [PDF]
Persian Text
|