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Deuterium/helium-3 fusion reactors with lithium seeding

M Mahdavi, B Kaleji2009年Plasma Physics and Controlled FusionIF 2.2出版社

Optimal usage and consumption of designed fuel pellets in the inertial confinement fusion system (ICF) is one of the very important parameters. In this research, nuclear fusion in D/3Hey/6Lix mixtures is considered using a time dependent model based on nuclear reactions, including ion–electron collisions, bremsstrahlung losses and inverse Compton effects and mechanical expansion [1]. The effect of the initial lithium concentration on ignition temperature and energy gain is analyzed. It was found that with x = 0.37 (x: lithium content parameter) and ρR = 23 g cm−2 (ρR: areal density) and Ti = 32 keV (Ti : ignition temperature) we get the maximum energy gain.

日本語訳

慣性閉じ込め核融合システム(ICF)における設計燃料ペレットの最適な使用と消費は、非常に重要なパラメータの一つである。本研究では、核反応に基づく時間依存モデルを用いて、D/3He/6Li混合物中の核融合を考察する。このモデルには、イオン-電子衝突、制動放射損失、逆コンプトン効果、および力学的膨張が含まれる[1]。初期リチウム濃度が点火温度とエネルギー利得に及ぼす影響を分析した。その結果、x = 0.37(x:リチウム含有率パラメータ)、ρR = 23 g cm⁻²(ρR:面密度)、Ti = 32 keV(Ti:点火温度)のときに最大のエネルギー利得が得られることが見出された。

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