Basic considerations concerning lightning impulse voltage breakdown in vacuum

U. Schumann, M. Kurrat
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引用次数: 2

Abstract

In this work, theoretical considerations concerning breakdown in the case of lightning impulse voltage ( 1.2/50μs) we investigated. Two breakdown Hypotheses are commonly available in publication. One is particle induced breakdown [1], where charged particles pass through the contact path. On contact with the anode, the induced processes lead to voltage collapse of the configuration. The other assumes that through field emission [2] current, micro tips knelt on the surface. An explosion of a micro tip leaves behind a micro plasma which induces the breakdown. Two breakdown types in the rear and front of the lightning impulse voltage can be recorded during dielectric tests of vacuum gaps to determine the electric strength. The breakdown processes should be compared considering their physical processes. The model should help to clarify which breakdown mechanism is more probable for the individual breakdown.
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真空中雷击电压击穿的基本考虑
本文研究了雷电冲击电压为1.2/50μs时击穿的理论问题。在出版物中有两种常见的分解假设。一种是粒子感应击穿[1],其中带电粒子通过接触路径。在与阳极接触时,感应过程导致结构的电压崩溃。另一个假设通过场发射[2]电流,微针尖跪在表面上。微尖端的爆炸会留下微等离子体,引起击穿。在真空间隙的介电试验中,可以记录雷击电压前后两种击穿类型,从而确定其电强度。应结合击穿过程的物理过程对其进行比较。该模型应该有助于澄清哪种崩溃机制更可能导致个体崩溃。
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