密集等离子体聚焦作为LLNL先进中子源的发展

A. Povilus, Y. Podpaly, L. Cooper, B. Shaw, S. Chapman, E. Koh, S. Falabella, A. Schmidt
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引用次数: 0

摘要

稠密等离子体聚焦(DPF)是一种z夹紧装置,它以同轴等离子体轨道炮开始,以内爆阶段结束。DPF历来是作为热核装置开发的。当与氘和氚气体一起使用时,DPF可以用来产生中子;然而,在实际操作中,DPF的行为经常不一致,并且人们对驱动中子产生的机制知之甚少。利用LLNL最近开发的动力学建模技术,我们已经深入了解了导致掐点区域粒子加速的机制,并可以做出明智的设计决策,以优化DPF行为,从亚千焦耳到兆焦耳规模的设备。LLNL的实验DPF平台也用于验证模拟中看到的行为,并提高设备性能,以期增加中子生成,增强再现性,减少尺寸和能量需求。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Development of Dense Plasma Foci as Advanced Neutron Sources at LLNL
The dense plasma focus (DPF) is a z-pinch device that starts as a coaxial plasma railgun and ends in an implosion phase. DPF's historically were developed as thermonuclear devices. When used with deuterium and tritium gases a DPF can be used to produce neutrons; however, in operation, DPF's often suffered from inconsistent behavior, and the mechanisms driving the neutron production were poorly understood. Using kinetic modeling techniques recently developed at LLNL, we have gained insight into the mechanisms that lead to particle acceleration in the pinch region and can make informed design decisions for optimizing DPF behavior, from sub-kilojoule to mega-joule scale devices. Experimental DPF platforms at LLNL also serve to validate the behaviors seen in simulations and improve device performance with a view towards increased neutron generation, enhanced reproducibility, and decreased size and energy requirements.
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