Unreasonable reactive power flow of traditional SVC and a novel SVC model against it

Huaichang Ge, Tianhua Chen, Hao Chen, Haoyin Ding, Qinglai Guo, Bin Wang, Fengda Xu
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Abstract

Recent years, various types of reactive power resources are installed in the power grid. Both of the complexity of and demand for better voltage regulation are increasing. AVC system is the most famous system-wide Q/V control system which consists of PVC, SVC and TVC. SVC controls the voltages of buses within a control zone by sending individual set-point values to PVCs belonging to the control zone. Traditional SVC assumes that PVCs within a control zone is decoupled and each PVC can reach the set-point value during a control period. However, the proof in this paper reveals the fact that if there are strongly coupled PVCs in a control zone, the competition between those PVCs will cause unreasonable reactive power flow. PVCs can’t reach their set-points so a deviation of Q output is induced. In this paper, a novel SVC model is proposed so as to eliminate the Q deviation. Simulation work verified the proof and demonstrated the effectiveness of the proposed SVC model.
传统SVC的无功潮流不合理,并针对其提出了新的SVC模型
近年来,电网中安装了各种类型的无功资源。电压调节的复杂性和对更好的电压调节的需求都在增加。AVC系统是最著名的全系统Q/V控制系统,它由PVC、SVC和TVC组成。SVC通过向属于控制区的pvc发送单个设定点值来控制控制区内总线的电压。传统的SVC假设控制区内的PVC是解耦的,每个PVC在一个控制周期内都能达到设定值。然而,本文的证明表明,如果控制区内存在强耦合的pvc,则这些pvc之间的竞争将导致不合理的无功潮流。pvc达不到设定值,导致Q输出偏差。为了消除Q偏差,本文提出了一种新的SVC模型。仿真工作验证了所提出的SVC模型的有效性。
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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