Kinetic simulation of breakdown time variation for gaps filled with dielectric particles

C. Moore, A. Fierro, R. Jorgenson, H. Hjalmarson, A. Jindal, M. Hopkins, P. Clem, L. Biedermann
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Abstract

Summary form only given, as follows. The complete presentation was not made available for publication as part of the conference proceedings. Breakdown simulations typically resort to initiation by artificially seeding part of the domain with an initial plasma. or by adding a trickle current orders of magnitude larger than what is physical. In order to simulate observed variations in breakdown voltages and times in pulsed voltage experiments with dielectric particles, we present here a more physical model for the generation of the initial plasma. In an upcoming set of experiments on a 250μm air-filled gap with. and without a dielectric present, breakdown voltages will be measured after applying a short UV light pulse just before the anode voltage is ramped up at 200 kV/μs.
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介电粒子填充间隙击穿时间变化的动力学模拟
仅给出摘要形式,如下。完整的报告没有作为会议记录的一部分提供出版。击穿模拟通常诉诸于用初始等离子体人工播种部分区域的起始。或者通过增加比物理电流大几个数量级的涓涓细流。为了模拟在电介质粒子脉冲电压实验中观察到的击穿电压和时间的变化,我们在这里提出了一个更物理的初始等离子体产生模型。在即将进行的一组实验中,在250μm的充满空气的间隙中。在没有介质存在的情况下,在阳极电压上升到200 kV/μs之前施加短紫外脉冲后,将测量击穿电压。
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