汽车充电站混合微电网系统设计与分析

S. Deshmukh, V. Biradar, S. P. Gawande
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引用次数: 0

摘要

直流电和交流电在充电站为电动汽车充电。直流电充电快,交流电充电慢。微电网交流负荷少,直流快速充电多。交流和直流转换产生的高谐波电流将增加电力使用,降低微电网的稳定性和丰富性。因此,主要依靠交流微电网的传统交直流混合微电网在这种情况下失效。由混合微电网供电的充电站可能有助于调节电流并减少当今电网的传输损耗。然而,当纯电动汽车(bev)在没有与混合微电网协调的情况下充电时,相关的可再生能源并没有充分发挥其潜力。此外,多端口充电设施是新充电站增长的一部分,预计会给电网带来压力。本文提出了一种独特的电动汽车充电站混合微电网系统来解决这些问题。为了更好地适应电网上的电动汽车,本研究提出并评估了一种用于电动汽车充电站的新型光伏混合直流/交流微电网。该模型的组成部分包括可再生能源、柴油发电机、光伏模型、存储设备、线性负载和非线性负载(RESs)。仿真结果表明了该模型对电动汽车充电站的有效性。
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Design and Analysis of Hybrid Microgrid System for Vehicle Electrical Charging Stations
DC and AC electricity charge EVs at the charging station. DC charges quickly, but AC charges slowly. The microgrid has few AC loads but lots of DC quick charging. High harmonic current from several AC and DC conversions will increase power usage and decrease microgrid solidity and richness. Hence, the traditional hybrid AC/DC microgrid that mainly relies on an AC microgrid fails in such conditions. Charging stations powered by a hybrid microgrid may help regulate power flow and reduce transmission losses in today's power grid. Nevertheless, when battery electric vehicles (BEVs) are charged without coordination with the hybrid microgrid, the associated renewable energy sources are not used to their full potential. In addition, a multiport charging facility is part of the growth of new charging stations that is expected to strain the power grid. Our unique hybrid microgrid system for electric car charging stations is proposed as a solution to these problems. To better accommodate electric vehicles (EVs) on the grid, this research proposes and evaluates a novel form of photovoltaics (PV) hybrid DC/AC microgrid for EV charging stations. Components of the proposed model include renewable energy sources, a diesel generator, a PV model, storage devices, linear loads, and non-linear loads (RESs). The effectiveness of the suggested model for electrical car charging stations is shown by the simulation results.
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