Modelling and Design of Grid Synchronised Three Phase Single Stage Battery Charging Station

Amol Ishwarrao Gedem, Ravi Ranjan, Nitish Mishra, K. Sekhar
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Abstract

Electric vehicles (EVs) are a suitable alternative to conventional fuel-based IC engine vehicles in view of global warming concerns. The fast-charging infrastructure interfaced with the utility grid is the mandatory requirement to promote EV adoption aggressively in the world. However, fast charging inversely impacts the grid in terms of injected harmonics and degrades the grid's power quality, demanding careful evaluation to protect the grid consumer interest. Targeting the power quality shaping, the presented work in this paper describes the model of a grid interfaced fast EV charging station. The charging station consists of an active front-end rectifier (AFER) connected to the grid through filter inductance. The output of AFER is connected directly to the DC bus, where EVs get connected through battery chargers. The AFER has operated in closed-loop control with inner current control (constant current control with power factor correction) loop and outer DC voltage control loop. The efficient controller with AFER is responsible for delivering the DC power to the battery at improved power factor and power quality. The proposed control technique efficacy is validated using MATLAB simulation by charging the battery in constant current (CC) and constant voltage (CV) mode.
电网同步三相单级电池充电站的建模与设计
考虑到全球变暖问题,电动汽车(ev)是传统燃油内燃机汽车的合适替代品。快速充电基础设施与公用电网的接口是在世界范围内积极推动电动汽车普及的强制性要求。然而,快速充电在注入谐波方面对电网产生了负面影响,并降低了电网的电能质量,因此需要仔细评估以保护电网消费者的利益。本文以电能质量塑造为目标,提出了一种基于电网接口的电动汽车快速充电站模型。充电站由一个有源前端整流器(AFER)组成,通过滤波电感与电网相连。AFER的输出直接连接到直流母线,电动汽车通过电池充电器连接。该装置采用内电流控制(带功率因数校正的恒流控制)环和外直流电压控制环的闭环控制。具有AFER的高效控制器负责以改进的功率因数和电源质量向电池提供直流电源。通过恒流(CC)和恒压(CV)模式对电池进行充电,通过MATLAB仿真验证了该控制技术的有效性。
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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