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Dynamics of runaway electrons in toroidal systems

D.A. Spong, J.F. Clarke, T. Kammash1974年被引用 4Nuclear FusionIF 3出版社

A self-consistent model of the runaway electron acceleration process that includes electron drift orbits has been developed. Two new effects obtained by the analysis are a shrinkage of the beam radius with time and a limitation on the maximum attainable γ, γmax ≲ (Wce/Wpe)2, in such a beam. For the ORMAK runaway regime data, these results are minor corrections to a previously developed model which did not include drift orbits. However, for higher-energy-density runaway beams, the drift orbit effects may become more significant.

日本語訳

逃走電子加速過程の自己無撞着モデルを、ドリフト軌道を含めて構築した。この解析により得られた新たな二つの効果は、ビーム半径の時間的収縮と、そのようなビームにおいて到達可能なγの上限、すなわちγmax ≲ (Wce/Wpe)² である。ORMAKの逃走電子パラメータ領域では、これらの結果は、ドリフト軌道を含まない従来のモデルに対する小さな補正に過ぎない。しかしながら、より高エネルギー密度の逃走電子ビームにおいては、ドリフト軌道の効果はより顕著になる可能性がある。

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