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High‐Performance Computing and Plasma Physics

MAR 01, 1993
Computer models such as the ‘numerical tokamak’ will advance all areas of plasma science, including basic plasma physics, fusion physics, space plasmas and industrial plasma processing.
John M. Dawson
Viktor Decyk
Richard Sydora
Paulett Liewer

The physics of ionized gases is a relatively new science. Not until the development of the electrical industry were controlled experiments on ionized gases possible, and so plasma physics is only about 100 years old. The early part of this century saw some pioneering studies of gas discharges and radio propagation in the ionosphere. However, the real impetus came with the initiation of the controlled thermonuclear reaction programs in the 1950s and with the discoveries of the Van Allen belts and the solar wind in the 1960s. Studies in these areas showed that plasma behavior is much more complex than had been anticipated.

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References

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  21. 21. P. C. Liewer, E. W. Leaver, V. K. Decyk, J. M. Dawson, in Proc. Fifth Distributed Memory Computing Conf., vol. 2, D. W. Walker, Q. F. Stout, eds., IEEE Comput. Soc. P., Los Alamitos, Calif. (1990), p. 939.

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  23. 23. P. Lyster, P. C. Liewer, R. Ferraro, V. K. Decyk, “Implementation of a Three‐Dimensional Particle‐in‐Cell Scheme on Distributed‐Memory Multiple‐Instruction Multiple‐Data Massively Parallel Computers,” preprint, available from the authors.

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More about the authors

John M. Dawson, University of California, Los Angeles.

Viktor Decyk, UCLA.

Richard Sydora, UCLA.

Paulett Liewer, NSF Center for Research, Pasadena, California.

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This Content Appeared In
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Volume 46, Number 3

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