The Enhancement Effect of Large Capacity Synchronous Condenser on Critical Voltage of AC System for Commutation Failure

Tao Wang, Gang Han, Defu Cai, Yu Wang, Wentao Huang, Kanjun Zhang, Ling Ruan
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Abstract

The synchronous condenser can provide rotating reactive power and improve voltage level effectively. This paper analyses the relationship between AC system voltage and commutation area of commutation failure at first, deduces the critical voltage of AC system corresponding to unsuccessful commutation of DC, calculates the critical voltage of typical engineering with three-phase fault for commutation failure. The computing platform of UHV power system with large capacity condenser and actual DC simulation model is established by taking an actual project as an example. The AC failure is calculated at a 1ms time interval, and the critical voltage corresponding to unsuccessful commutation failure is obtained. In the end, the theoretical results are compared with the critical voltage obtained by the simulation platform, and the theoretical and practical engineering results are mutually verified, which has a strong theoretical guiding significance for installing synchronous condenser to prevent the commutation failure in power grid planning, scheduling operation, structural optimization.
大容量同步电容器对交流系统换相故障临界电压的增强作用
同步电容器可以提供旋转无功功率,有效地提高电压水平。本文首先分析了交流系统电压与换相失效换相面积的关系,推导了直流换相失败对应的交流系统临界电压,计算了典型工程三相故障换相失效的临界电压。以实际工程为例,建立了具有大容量电容器的特高压电力系统的计算平台和实际直流仿真模型。以1ms的时间间隔计算交流故障,得到换相失败对应的临界电压。最后,将理论结果与仿真平台得到的临界电压进行对比,理论结果与实际工程结果相互验证,对安装同步冷凝器防止电网规划、调度运行、结构优化中的换相故障具有较强的理论指导意义。
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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