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Magnetic Inertial Confinement Fusion(MICF)

Magnetic Inertial Confinement Fusion (MICF)
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摘要 t Based on the similarity in models of the early Sun and the 3-D common focal region of the micro-pinch in X-pinch experiments, a novel hybrid fusion configuration by continuous focusing of multiple Z-pinched plasma beams on spatially symmetric plasma is proposed. By replacing gravity with Lorentz force with subsequent centripetal spherical pinch, the beam- target fusion reactivity is enhanced in a quasi-spherical converging region, thus achieving MICF. An assessment, presented here, suggests that a practical fusion power source could be achieved using deuterium alone. Plasma instabilities can be suppressed by fast rotation resulting from an asymmetric tangential torsion in the spherical focal region of this configuration. Mathematical equivalence with the Sun allows the development of appropriate equations for the focal region of MICF, which are solved numerically to provide density, temperature and pressure distributions that produce net fusion energy output. An analysis of MICF physics and a preliminary experimental demonstration of a single beam are also carried out. t Based on the similarity in models of the early Sun and the 3-D common focal region of the micro-pinch in X-pinch experiments, a novel hybrid fusion configuration by continuous focusing of multiple Z-pinched plasma beams on spatially symmetric plasma is proposed. By replacing gravity with Lorentz force with subsequent centripetal spherical pinch, the beam- target fusion reactivity is enhanced in a quasi-spherical converging region, thus achieving MICF. An assessment, presented here, suggests that a practical fusion power source could be achieved using deuterium alone. Plasma instabilities can be suppressed by fast rotation resulting from an asymmetric tangential torsion in the spherical focal region of this configuration. Mathematical equivalence with the Sun allows the development of appropriate equations for the focal region of MICF, which are solved numerically to provide density, temperature and pressure distributions that produce net fusion energy output. An analysis of MICF physics and a preliminary experimental demonstration of a single beam are also carried out.
作者 MIAO Feng ZHENG Xianjun DENG Baiquan LIU Wei OU Wei HUANG Yi 苗峰;曾宪俊;邓柏权;刘伟;欧巍;黄毅(Institute of Atomic and Molecular Physics, Sichuan University;Southwest University for Nationalities;HOPE Innovations Inc.;Southwestern Institute of Physics;Institute of Nuclear Science and Technology, Sichuan University)
出处 《Plasma Science and Technology》 SCIE EI CAS CSCD 2016年第11期1055-1063,共9页 等离子体科学和技术(英文版)
基金 supported by National Natural Science Foundation of China(Nos.11374217 and 11176020)
关键词 MICF centripetal spherical pinch beam-target enhancement MICF, centripetal spherical pinch, beam-target enhancement
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