放电时延

当充电电压不变，电容量增加时，放电震荡周期和放电电流峰值都会增加，放电时延减小，放电效率提高。

When the capacitance increases while the charging voltage is constant , the discharge oscillation cycle and the discharge current peak will increase , discharge time delay decreases .

对于1mm氮气间隙，计算了充电电压波形为纳秒级上升的斜角平顶波时，开关放电时延以及击穿电压随气压和充电电压上升时间的变化。

The waveform of the voltage applied to a 1-mm nitrogen gap was assumed as a linear rising followed by a flat top .

另外，对不同试样的放电时延分布进行了比较。

Moreover , the time lag distributions with different kinds of specimens were compared together in this paper .

在直流、交流以及宽脉冲电压波形条件下，电压上升速率相对缓慢，放电时延内电压增幅可忽略不计。

When applied voltage waveforms are dc , ac and slow pulse , voltage amplitude during discharge can be ignored .

实验结果显示放电时延的统计学分布与外施电压有关，电压增大，时延缩短。

The measurement with step voltages , using CIGRE ⅱ electrode system , showed that the statistical distribution of the discharge time lag depends on the applied voltage , the time lag being shorter with increasing voltage .