Effects of Ferromagnetic Cores in Wireless Power Transfer System for Charging Electric Vehicles

Elnail Kamal Eldin Idris Ahmed
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Abstract

Wireless Power Transfer (WPT) technology for charging Electric Vehicle (EV) batteries is promising technology. System performance improvement and reducing Electromagnetic field (EMF) leakage are the key factors in designing an optimum charger. In this paper, adding ferrite disk to the WPT resonator is intensively studied. Three case studies are proposed, including coils only without ferrite, ferrite disk at the transmitting side only, and ferrite disks are used with the two coils. Finite Element Method (FEM) software is used for designing 3 kW-class, 20 cm transfer distance, 85 kHz charger. The simulation results are recorded and compared with regard to the system coil-to-coil efficiency and the EMF levels above the receiving coil and inside the air-gap. The results show that adding ferrite disks is significantly enhanced the system performance as well as reduced the EMF leakage surrounding the charger.
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铁磁磁芯在电动汽车无线充电传输系统中的作用
无线电力传输(WPT)技术为电动汽车(EV)电池充电是一项很有前途的技术。提高系统性能和减少电磁场泄漏是优化充电器设计的关键因素。本文对在WPT谐振器中加入铁氧体盘进行了深入的研究。提出了三种情况,包括线圈不含铁氧体、发射侧仅使用铁氧体盘和两个线圈同时使用铁氧体盘。采用有限元法(FEM)软件设计了3kw级、传输距离20cm、85khz的充电器。将模拟结果记录下来,并与系统线圈对线圈的效率以及接收线圈上方和气隙内部的EMF水平进行比较。结果表明,添加铁氧体磁碟可显著提高系统性能,减少充电器周围的电磁泄漏。
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