电动汽车道路无线充电四极板电容耦合器设计及性能分析

S. Kodeeswaran, M. Gayathri, A. Kannabhiran, P. Sanjeevikumar
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引用次数: 1

摘要

电动汽车(ev)在停车时通过一种称为固定无线充电的无线电力传输方法充电,这是一种更著名的方法。道路电动汽车充电也可以通过无线电力传输方法,即动态充电。大多数动态充电基础设施是采用感应功率传输(IPT)方法开发的,并应用于电动汽车。但该方法的难点在于成本高,电感线圈的涡流损耗大。为此,为了降低道路充电系统的成本,提出了一种高功率容性动态充电系统,以促进容性功率传输(CPT)方法在电动汽车动态充电中的应用。本文主要对电容性铝板进行设计,并对三种不同耦合器布置方式进行对比分析。电容耦合器的互电容直接关系到系统的输出功率,这是本文的主要论述。通过ANSYS Maxwell仿真,确定了三种不同布置方式下的互容和自容,找到了合适的耦合器布置方式。在仿真结果对比的基础上,选择互电容高的布置方式,进一步发展电动汽车道路无线充电。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Design and Performance Analysis of Four Plates Capacitive Coupler for Electric Vehicle On-Road Wireless Charging
Electric vehicles (EVs) during parking are charged by a wireless power transfer method called stationary wireless charging, a more famous method. On-road EVs charging is also possible by the wireless power transfer method, known as dynamic charging. Most of the dynamic charging infrastructure was developed by the Inductive Power Transfer (IPT) method and applied in EVs. But the difficulty of this method is high cost and more eddy current losses due to inductive coils. Hence, to reduce the cost of the on-road charging system, a high power capacitive dynamic charging system is proposed to promote the Capacitive Power Transfer (CPT) method in Ev’s dynamic charging applications. This research article mainly focuses on capacitive aluminum plate design and comparative analysis for three different coupler arrangements. The mutual capacitance of the capacitive coupler is directly relative to the system’s output power, which is the main statement of this article. The ANSYS Maxwell simulation determines the mutual capacitance and self-capacitances for the three different arrangements to find the suitable coupler arrangement. Based on the comparison of the simulated results, which arrangement has high mutual capacitance is selected for further EVs on-road wireless charging development.
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