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Physics basis for the Fusion Ignition Research Experiment (FIRE)
Author(s) -
D. M. Meade,
R.J. Thome,
N. Sauthoff,
P. Heitzenroeder,
B.E. Nelson,
M. Ulrickson,
C. E. Kessel,
J.H. Schultz,
P. H. Rutherford,
J.C. Wesley,
K. M. Young,
W. M. Nevins,
N. A. Uckan,
J. Schmidt
Publication year - 2000
Language(s) - English
Resource type - Reports
DOI - 10.2172/758080
Subject(s) - plasma , fusion , physics , beta (programming language) , ignition system , magnetic confinement fusion , fusion power , toroid , nuclear fusion , inertial confinement fusion , ignitor , nuclear physics , nuclear engineering , tokamak , computer science , engineering , philosophy , linguistics , thermodynamics , programming language
Understanding the properties of high gain (alpha-dominated) fusion plasmas in an advanced toroidal configuration is a critical issue that must be addressed to provide the scientific foundation for an attractive magnetic fusion reactor. The functional fusion plasma objectives for major next physics steps in magnetic fusion research can be described as: Burning Plasma Physics - The achievement and understanding of alpha-dominated plasmas that have characteristics similar to those expected in a fusion energy source, and Advanced Toroidal Physics - The achievement and understanding of bootstrap-current-dominated plasmas with externally controlled profiles and other characteristics (e.g. confinement and beta) similar to those expected in an attractive fusion system

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