Analysis of failure of a circuit breaker employed for capacitor switching: A review

M. R. Salodkar, V. Ghate, S. S. Kalwaghe
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Abstract

It is common practice to install shunt capacitors to improve the power factor and voltage profile at all voltage levels in the power system. Almost all type of load including domestic user's appliances is inductive. Due to low water level agricultural load are also increasing. All these conditions lead to poor power factor and large amount of reactive power flows through the transmission line and voltage drop occurs. Hence, in several areas low voltage pockets are created. To improve this low power factor, adequate compensation is to be provided at load end point. Due to increasing load/consumers it is very difficult to insist every consumer to provide compensating device. Ultimately power transmission companies have decided to provide the capacitor bank at the feeding substation at various voltage levels such as 11KV, 33KV and EHV levels also. And now a day it is well accepted practice to install a capacitor bank at the feeding substation for improving the power factor of the system. The major problem with the capacitor bank is the interrupter failure i.e. the failure of circuit breaker employed for its switching. It is reported by power distribution and transmission companies that breaker failure occurs before its specified number of operation. In order to understand this problem, I thought of taking a topic of dissertation work which relates to the failure of circuit breaker employed for capacitor switching.
电容器开关用断路器故障分析:综述
通常的做法是安装并联电容器,以改善电力系统中所有电压等级的功率因数和电压分布。包括家用电器在内的几乎所有类型的负载都是电感式的。由于低水位,农业负荷也在不断增加。这些情况都会导致功率因数较差,大量无功功率流过输电线路,产生电压下降。因此,在一些地区产生了低压袋。为了改善这种低功率因数,必须在负载端点提供足够的补偿。由于负载/消费者的增加,很难坚持每个消费者都提供补偿装置。最终,输电公司决定在馈电变电站提供各种电压水平的电容器组,如11KV, 33KV和超高压水平。为提高系统的功率因数,在馈电变电站安装电容器组已成为一种普遍的做法。电容器组的主要问题是中断故障,即用于开关的断路器故障。配电公司和输电公司报告说,断路器在规定的运行次数之前发生故障。为了了解这个问题,我想到了一个关于电容器开关断路器故障的论文题目。
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