Design and Analysis of a High-Efficiency dual side S-S Compensation topology of Inductive Power Transfer for EV battery charging System

B. Bhavsingh, B. Mangu, G. Babu
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引用次数: 1

Abstract

In present days, wireless power transfer systems are more popular for its application like wireless charging devices such as cell phones, laptops, electric vehicles, underwater vehicles and medical devices. In an inductively coupled battery charging system, for better power transfer capability, a high efficiency and attaining required power level, compensation is required. This paper focused on designing and analysis of series-series (S-S) compensation topologies to minimize impedance and increase efficiency of Inductive wireless power transfer (IWPT) of electric vehicle (EV) battery charging systems. First, the designing formulas are derived for S-S compensated Inductive power transfer (IPT) system from that bifurcation issue, gain, dual side control and maximum efficiency conditions are achieved. Based on formulas, equivalent electrical circuits parameters are calculated for designing a 1.5 kW output power and the resonance frequency 85 kHz. The results convey that the maximum efficiency and zero power angle (ZPA) are achieved. A simulation system is made in the MATLAB/SIMULINK, from which performance of the system results are verified.
电动汽车电池充电系统高效双侧S-S补偿拓扑设计与分析
目前,无线电力传输系统因其应用于手机、笔记本电脑、电动汽车、水下航行器和医疗设备等无线充电设备而更受欢迎。在电感耦合电池充电系统中,为了获得更好的功率传输能力、更高的效率和达到所需的功率水平,需要进行补偿。本文重点研究了串联补偿拓扑结构的设计与分析,以降低电动汽车电池充电系统的阻抗,提高电池充电效率。首先,从S-S补偿电感功率传输(IPT)系统的分岔问题、增益、双侧控制和最大效率条件出发,推导了该系统的设计公式。根据公式,计算了设计输出功率为1.5 kW、谐振频率为85 kHz时的等效电路参数。结果表明,该方法实现了最大效率和零功率角(ZPA)。在MATLAB/SIMULINK中搭建了仿真系统,验证了系统的性能。
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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