用于减小奈恩斯特效应的双层单壳磁化靶

Shijia Chen, Fuyuan Wu, Hua Zhang, Cangtao Zhou, Yan-Yun Ma, Rafael Ramis
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摘要

燃料磁化大大降低了所需的径向聚合,使圆柱形内爆成为惯性约束聚变(ICF)的一种有前途的方法。应用于 Z-pinch 的双层单壳磁化靶设计的 Nernst 效应得益于金层,它可以降低燃料退磁,并作为磁热绝缘层,防止磁热损失。在辐射磁流体力学(RMHD)模型中考虑了磁场的电阻扩散和奈恩斯特平流,它们改变了磁化靶中磁通量的演变,并导致等离子体退磁。结果表明,在 30 MA 的驱动电流下,参数范围较宽的目标可以达到点火条件。双层单壳磁化靶可减轻奈恩斯特效应,具有实现点火条件的潜力。与单层单壳靶相比,最佳靶的聚变产率提高了 168%,从 0.71 兆焦耳增至 1.90 兆焦耳。
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A two-layer single shell magnetized target for lessening the Nernst effect
Fuel magnetization significantly lowers the required radial convergence enabling cylindrical implosions to become an promising approach for inertial confinement fusion (ICF). Nernst effect on the two-layer single shell magnetized target design applied to Z-pinch benefits from a gold layer that decreases fuel demagnetization and serves as a magnetothermal insulation layer, preventing magnetothermal losses. The resistive diffusion and Nernst advection of the magnetic field are considered in the radiation magnetohydrodynamic (RMHD) model, which alter the evolution of magnetic flux in the magnetized target and result in plasma demagnetization. The results demonstrate that targets with a wide range of parameters can achieve ignition condition under a 30 MA driven current. A two-layer single shell magnetized target for lessening the Nernst effect has the potential to achieve ignition condition. The fusion yield of the optimal target increases by 168% from 0.71 MJ to 1.90 MJ, compared to a one-layer single shell target.
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