A high voltage capacitance measurement method based on alternating coupled signal injection.

Pengcheng He, Yiping Liang, Wei Qi, L. Bai, Quanxin Zhou, J. Zhang
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Abstract

As high voltage pulse power capacitors, ceramic capacitors are widely used in high voltage pulse generators, trigger circuits, laser generators, and other fields. The capacitance of ceramic capacitors is closely related to the direct current (DC) bias voltage. However, the current capacitance measurement methods can only achieve a DC bias of 1 kV, which cannot meet the measurement requirements in high voltage environments. This paper proposes a capacitance measurement method that can accurately measure the capacitance under a DC bias of 3 kV. This method decouples the high DC bias voltage and high frequency alternating small signals and realizes low voltage calibration and high voltage isolation. The experimental results show that the proposed method measures the capacitance under a DC bias of 3 kV with a relative error within ±1%, which makes it possible to accurately quantify the capacitance hysteresis deviation in the process of increasing and decreasing back the voltage.
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基于交变耦合信号注入的高压电容测量方法。
陶瓷电容器作为高压脉冲功率电容器,广泛应用于高压脉冲发生器、触发电路、激光发生器等领域。陶瓷电容器的电容与直流偏置电压密切相关。而目前的电容测量方法只能达到1 kV的直流偏置,不能满足高压环境下的测量要求。本文提出了一种能准确测量3 kV直流偏置下电容的电容测量方法。该方法对高直流偏置电压和高频交变小信号进行解耦,实现了低压标定和高压隔离。实验结果表明,该方法在3 kV直流偏置下测量电容,相对误差在±1%以内,可以准确量化电压增减过程中的电容滞后偏差。
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