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Compatibility of improved confinement regimes with reactor requirements

K Lackner1998年Plasma Physics and Controlled FusionIF 2.2出版社

The reactor physics requirements are outlined in terms of characteristic performance measures. Four reactor designs of different scope are taken as examples. ITER is based on the ELMy H-mode as an operating regime demonstrated over many energy confinement times. Designs for power producing reactors require higher power densities and bootstrap current fractions, and therefore higher values of normalized . The capability of different enhanced confinement regimes, combining internal transport barriers with the L- or H-mode edge to satisfy these demands, together with the requirements on helium pumping and divertor power load, is discussed.

日本語訳

炉物理の要件は、特性性能指標の観点から概説される。異なる規模の4つの炉設計が例として取り上げられる。ITERは、多数のエネルギー閉じ込め時間にわたって実証された運転領域としてELMy Hモードに基づいている。発電用炉の設計には、より高い出力密度とブートストラップ電流割合、したがってより高い規格化値が必要である。内部輸送障壁とLモードまたはHモードの境界を組み合わせた異なる強化閉じ込め領域が、これらの要件を満たす能力とともに、ヘリウム排気およびダイバータへの熱負荷に関する要件について議論される。

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iter中精度(概要文一致)

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Improved confinement
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