一种适用于公用事业的高效低损耗混合电压调节器

IF 7.9 Q1 ENGINEERING, ELECTRICAL & ELECTRONIC
Yafeng Wang;Tiefu Zhao
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引用次数: 1

摘要

步进电压调节器(SVR)作为电压调节装置在配电系统中已经使用了几十年。由于分布式能源的日益整合,传统的SVR受到可再生能源渗透率高的现代配电模式的严峻挑战。由传统SVR抽头变化引起的感应电弧和由可再生能源引起的电压不稳定性引起的更频繁的抽头变化对传统SVR的寿命施加了限制。同时,传统的SVR装置不能精确地调节电压,因为SVR逐步地调节电压。本文提出了一种高效、低接触损耗的混合式电压调节器,通过使用分数额定的背靠背功率变换器,可以实现无电弧抽头变换和无级电压调节。准确的负载电压调节得到了保证,而分接开关机制仍保留在系统中,这有助于促进对现有配电系统的升级。所提出的拓扑结构中的功率转换器容量仅为配电变压器额定值的0.31%,实现了±10%的无级电压调节范围,与全功率电子解决方案相比,显著降低了系统成本,并实现了高的总系统效率。对所提出的混合电压调节器进行了仿真和实验验证。实验结果证明了无电弧抽头变换操作和无级电压调节。传统的机械抽头转换和功率转换器操作之间的协作操作也被证明可以通过快速电压控制获得大的电压调节。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A High-Efficiency Low-Wearing Hybrid Voltage Regulator for Utility Applications
Step voltage regulator (SVR) has been utilized in power distribution systems for decades as the voltage regulation device. Due to the increasing integration of distributed energy resources, the conventional SVR is severely challenged by the modern power distribution pattern with high renewable energy penetration. The induced arc from the conventional SVR tap change and more frequent tap changes due to voltage instability from the renewable energy impose constraints on the conventional SVRs lifetime. Meanwhile, the conventional SVR device cannot regulate the voltage accurately since the SVR regulates the voltage step-by-step. This article proposed a hybrid voltage regulator with high-efficiency and low contact wearing, which can achieve arcless tap change and stepless voltage regulation by using a fractionally rated back-to-back power converter. The accurate load voltage regulation is guaranteed, while the tap changer mechanism remains in the system, which helps to promote the upgrade to the existing power distribution systems. The power converter capacity in the proposed topology is only 0.31% of the distribution transformer rating to achieve a stepless voltage regulation range of ±10%, significantly reducing the system cost compared with the full power electronics solutions and projects high total system efficiency. The proposed hybrid voltage regulator was simulated and experimentally validated. The experimental results demonstrate arcless tap change operation and stepless voltage regulation. Collaborative operation between the conventional mechanical tap change and the power converter operation is also demonstrated to acquire large voltage regulation with fast-acting voltage control.
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