Quantifying Electric Charge on Cap-Pin Glass Insulator: Investigating the Impact of Pollution through Simulation and Experimental Approaches

Rabie Salhi, Abdelouahab Mekhaldi, M. Teguar, O. Kherif
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Abstract

The objective of this paper is to investigate the behavior of electric charges on cap-pin glass insulator under 50 Hz AC voltage. The study is conducted using COMSOL Multiphysics to understand the charge location, polarity, and parameters affecting their behavior. A 2D axisymmetric insulator design is used to visualize the overall charges on the insulating system (space charge) and along the insulating surface (surface charge density) under uniform and non-uniform pollution conditions. The research shows that the total charge accumulates over the surface area of the glass material. To quantify the amount of this charge, a simulation method based on using the surface integral of the electric displacement field over this area is introduced, which is supported by experimental tests. Comparing both simulation and experimental results provides insights into the simulation reliability and the parameters affinity used to those of the real model. Moreover, the simulation helps to identify the critical area where a high amount of charges is accumulated. The  findings of this study are presented and examined.    
量化帽针玻璃绝缘体上的电荷:通过模拟和实验方法研究污染的影响
本文旨在研究 50 赫兹交流电压下帽针玻璃绝缘体上的电荷行为。研究使用 COMSOL Multiphysics 来了解电荷位置、极性以及影响其行为的参数。研究采用二维轴对称绝缘体设计,以直观显示在均匀和非均匀污染条件下绝缘系统上的总电荷(空间电荷)和绝缘表面上的总电荷(表面电荷密度)。研究表明,总电荷在玻璃材料的表面积上不断累积。为了量化这些电荷的数量,引入了一种基于该区域电位移场表面积分的模拟方法,并辅以实验测试。通过比较模拟和实验结果,可以深入了解模拟的可靠性以及所用参数与真实模型参数的亲和性。此外,模拟还有助于确定高电荷累积的关键区域。本报告对研究结果进行了介绍和分析。
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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