基于球形DPF腔的1014dt中子产率脉冲源的发展展望

V. Dolinskii, D. A. Ershov, A. P. Falin, S. F. Garanin, A. V. Garin, O. N. Petrushin, Yu. S. Shigaev
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引用次数: 1

摘要

本文介绍了基于密集等离子体聚焦球形气体放电室(DPF)的高强度中子源研制的研究结果。目前,通过对物理过程的研究,明确了球形DPF腔内等离子体形成动力学,VNIIEF开发了半高脉冲持续时间75-80 ns,积分产额1013 dt -neutron的中子辐射源设施[1]。利用在研制的源上实验获得的信息,研究了将存储能量提高到350 kJ,电流振幅提高到2.4 MA时,获得1014 dt中子的产率的能力。为了达到上述参数,应该将电容器组的电容提高到600µF,并将腔室阳极直径提高到200 mm。利用上述参数进行了MHD计算,证明了提高中子产率的可能性。中子产率的计算考虑了文献[2]中描述的中子产生的加速机制。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Prospects for development of pulsed source with a yield 1014 DT-neutrons based on spherical DPF chamber
Presented are study results, aimed at development of a high-intense neutron source based on a spherical gas-discharge chamber with a dense plasma focus (DPF). At present, as a result of studies of physical processes, specifying plasma formations dynamics in spherical DPF chambers, VNIIEF has developed a neutron radiation source facility with half-height pulse duration 75–80 ns and integral yield 1013 DT-neutrons [1]. When using information, obtained during experiments on the developed source, a capability for acquiring a yield of 1014 DT-neutrons is studied when raising the stored energy up to 350 kJ and the current amplitude up to 2.4 MA. To approach the mentioned parameters one should enhance the capacitance of capacitor bank up to 600 µF and the chamber anode diameter up to 200 mm. Conducted MHD calculations with above-indicated parameters prove the possibility for neutron yield increase. The neutron yield is calculated taking into account accelerative mechanism of neutron generation described in paper [2].
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