Structure of handheld resonant magnetic coupling charger (HH-RMCC) for electric vehicle considering electromagnetic field

C. Song, Hongseok Kim, Sunkyu Kong, D. Jung, In-Myoung Kim, Young-il Kim, Jonghoon J. Kim, Joungho Kim
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引用次数: 10

Abstract

Inductive charging is a convenient method to transfer electrical power from a source to the batteries without any electrical contact. The problem is that inductive charging technologies may have electromagnetic compatibility (EMC) issues caused by leakage magnetic field. In this paper, an inductive charger design for electric vehicles (EVs) named as Handheld Resonant Magnetic Coupling Charger (HH-RMCC) is proposed. The air gap and thickness of the ferrite core are determined considering the core saturation and leakage magnetic field. The maximum value of the simulated magnetic flux density at the distance of 200 mm away from the charger is 2.28 mG and the simulation result of the power transfer efficiency is approximately 99.5%. The simulation results using 3D Finite Element Analysis (FEA) tool show that HH-RMCC satisfies EMF regulation published by the International Commission on NonIonizing Radiation and Protection (ICNIRP) at the frequency of 20 kHz with high performance.
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考虑电磁场的电动汽车手持谐振磁耦合充电器(HH-RMCC)结构
感应充电是一种方便的方法,可以在没有任何电接触的情况下将电力从电源传输到电池。问题是感应充电技术可能存在漏磁场引起的电磁兼容性问题。本文提出了一种用于电动汽车的感应式充电器——手持式谐振磁耦合充电器(HH-RMCC)。考虑铁芯饱和度和漏磁场,确定铁氧体铁芯的气隙和厚度。在距离充电器200 mm处,模拟磁通密度最大值为2.28 mG,功率传输效率的模拟结果约为99.5%。利用三维有限元分析(FEA)工具仿真结果表明,HH-RMCC满足国际非电离辐射与防护委员会(ICNIRP)在20 kHz频率下公布的EMF规范,性能良好。
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