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A pulsed multi-mirror fusion reactor: longitudinal confinement

B.A. Knyazev, P.Z. Chebotaev1984年被引用 9Nuclear FusionIF 3出版社

The longitudinal confinement of a plasma in a pulsed multi-mirror fusion reactor is investigated. It is shown that the initial plasma energy Wp per unit of reactor cross-section and the initial plasma temperature T0 serve as similarity parameters. One-dimensional numerical calculations of plasma flow along the reactor axis were performed for various Wp and T0 and were used to determine the plasma gain function QE(WP, T0). The region of maximum values of QE lies near T0 = 5 keV for all Wp. Plasm a heating by α-particles becomes substantial for values of QE exceeding unity. At Wp = 20 MJ·cm−2, QE calculated with plasma heating by α-particles exceeds QE as calculated without including such heating by a factor of five. If the mirror ratio is increased by enlarging the cross-section towards the reactor ends, Q is further increased by a factor of two. A value of QE = 1 is achieved at an initial plasma energy of Wp ≈ 5 MJ·cm−2, and QE = 10 is achieved for Wp Wp≈12 MJ·cm−2.

日本語訳

パルス多連ミラー核融合炉におけるプラズマの縦方向閉じ込めを調査した。炉の断面積当たりの初期プラズマエネルギーWpと初期プラズマ温度T0が相似パラメータとして機能することが示される。様々なWpとT0に対して、炉の軸に沿ったプラズマ流の一次元数値計算を実行し、プラズマ増倍率関数QE(WP, T0)を決定するために用いた。QEの最大値の領域は、全てのWpに対してT0 = 5 keVの近傍に位置する。α粒子によるプラズマ加熱は、QEの値が1を超えると顕著になる。Wp = 20 MJ·cm−2では、α粒子によるプラズマ加熱を考慮して計算したQEは、そのような加熱を含めずに計算したQEを5倍上回る。ミラー比を、炉端部に向かって断面積を大きくすることによって増加させると、Qはさらに2倍増加する。QE = 1の値は初期プラズマエネルギーWp ≈ 5 MJ·cm−2で達成され、QE = 10はWp ≈ 12 MJ·cm−2で達成される。

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