The ultra high voltage device with vacuum insulation

Danshuheng, Tang Xinlong, Wang Dezhong, Zhupingyuan
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Abstract

The ultra high voltage transmission lines rated 1000kV will be the effective and practical strategy for the interconnection of the national wide power grid in China. In order to test the equipment with ultra high voltage the synthesis circuit which uses voltage and current source to work together will be adopted because of the lower test cost. The very important device which will determine and influence the validity of the synthesis circuit test will be introduced and designed in this paper. The voltage is high so the gap in air will be very long to sustain such high voltage even in vacuum the gap will also be long enough. Long gap is not easy to be influenced by the tripping signal. The simulation test is carried out with air gaps in series. The function of the tripping signal on the breakdown of the gaps is tested. The minimum breakdown voltage is tested and compared between the same gap with and without tripping signal. The relationship of the voltage smaller than the minimum breakdown voltage and the breakdown time is also tested. The test result proves that tripping signal can control the breakdown time of the gaps in series, which will be true for the long vacuum gaps in series. Furthermore the tripped vacuum gaps in series rated 500kV with 3.8m long is designed
采用真空绝缘的超高压装置
1000kV超高压输电线路将是实现中国全国电网互联的有效而实用的策略。为了对超高压设备进行测试,由于测试成本较低,将采用电压和电流源协同工作的综合电路。本文介绍并设计了决定和影响综合电路测试有效性的重要器件。电压很高,因此空气中的间隙将非常长,以维持如此高的电压,即使在真空中,间隙也将足够长。长间隙不容易受跳闸信号的影响。模拟试验采用气隙串联进行。测试了跳闸信号对间隙击穿的作用。在有跳闸信号和没有跳闸信号的情况下,对相同间隙的最小击穿电压进行了测试和比较。测试了小于最小击穿电压的电压与击穿时间的关系。试验结果表明,跳闸信号可以控制串联真空间隙的击穿时间,对于长真空间隙的串联也是如此。设计了额定500kV、长3.8m串联跳闸真空间隙
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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