Measuring surface charge with a noncontacting voltmeter

M. Horenstein
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引用次数: 10

Abstract

The problem of using a noncontacting electrostatic voltmeter to measure surface charge is addressed. By design a noncontacting voltmeter enforces a zero-field condition at its probe by adjusting its own probe potential. When an isolated charge distribution is measured, the field around the probe is shown to consist of two superimposed components, one equal to the field caused by the measured charge distribution and a grounded probe, and the other equal to the field of the energized probe with the charge distribution absent. The resulting probe potential is shown to depend on the magnitude of the measured charge, its physical geometry, the geometry of the probe, and the position of the probe relative to the charge distribution. A method for interpreting the reading of a noncontacting voltmeter based on these factors is presented and experimentally verified.<>
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用非接触电压表测量表面电荷
解决了使用非接触式静电电压表测量表面电荷的问题。通过设计非接触式电压表,通过调整自身的探头电位来实现探头处的零场条件。当测量孤立电荷分布时,显示探针周围的场由两个重叠分量组成,一个等于被测量的电荷分布和接地探针引起的场,另一个等于通电探针而不存在电荷分布的场。由此产生的探针电位取决于所测电荷的大小、其物理几何形状、探针的几何形状以及探针相对于电荷分布的位置。提出了一种基于这些因素解释非接触电压表读数的方法,并进行了实验验证
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