基于相量的D-PMUs和电动汽车电池充电器配电网最优电压控制

G. Mejia-Ruiz, R. Cárdenas, M. Paternina, A. Zamora, C. Toledo-Santos
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引用次数: 2

摘要

本文研究了一种优化配电网电压分布的控制方案,该方案通过协调电动汽车(EV)充电器的无功功率注入和配电级相量测量单元(D-PMUs)的电压幅值遥感来改善配电网的电压分布。然后,特征系统实现(ER)算法利用d - pmu产生的时间同步测量提供了配电网(DG)的识别。同时,多输入多输出(MIMO)线性二次高斯(LQG)控制器根据Bellman原理建立基于相量的最优电压控制,实现状态最小化和输出调节。通过在IEEE 13节点测试基准馈线上的模拟场景测试,验证了最优控制方案的有效性。所取得的结果显示,在存在三相故障和显著负载增量的情况下,电压分布在毫秒尺度上的补偿。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Phasor-Based Optimal Voltage Control for Distribution Grids Through D-PMUs and EV Battery Charger
This paper focuses on an optimal control scheme to improve the voltage profile of distribution networks by coordinating the reactive power injection from electric vehicle (EV) chargers and the remote sensing of the voltage magnitude by using phasor measurement units at distribution level (D-PMUs). Then, the eigensystem realization (ER) algorithm provides the identification of the distribution grid (DG) by taking advantage of time-synchronize measurements stemming from D-PMUs. Meanwhile, the linear quadratic Gaussian (LQG) controller with multiple inputs and multiple outputs (MIMO) minimizes the states and regulate the outputs by establishing a phasor-based optimal voltage control in fulfillment with the Bellman's principle. The effectiveness of the optimal control scheme is demonstrated by testing simulated scenarios on the IEEE 13- node test benchmark feeder. The achieved results exhibit a compensation of the voltage profile at the millisecond scale in the presence of three-phase faults and significant load increments.
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