Dosimetry Simulation Research on Electromagnetic Exposure of Wireless Charging Electric Vehicle to Human Central Nervous System

Wenting Mou, Mai Lu
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Abstract

To evaluate the safety of electromagnetic exposure of a magnetic coupling resonance wireless charging system in electric vehicles on the human central nervous system, COMSOL Multiphysics software is used to establish electric vehicle models with different materials and thicknesses, a magnetic coupling resonance wireless charging system model, and a human body model. The electromagnetic exposure of the electromagnetic field generated by the wireless charging system to the central nervous system of the human body in the electric vehicle with carbon fiber-reinforced plastics (CFRP) car body, aluminum alloy car body, and low carbon steel car body with different thickness shielding is simulated and analyzed. The simulation results show that CFRP, aluminum alloy, and low carbon steel vehicles can effectively shield electromagnetic fields. The shielding effect of CFRP and aluminum alloy car body improves with the increase of thickness, and the shielding effect of low carbon steel car body worsens with the increase of thickness. Under the worst shielding condition, the maximum magnetic induction strength and electric field strength of human head are respectively 0.9 µT and 0.18 V/m the electromagnetic exposure level to the human head is less than the public exposure limit of 27 µT and 2.97 V/m set by the International Commission on Non-Ionizing Radiation Protection. Results show that the magnetic coupling resonance wireless charging system of an electric vehicle will not harm the human central nervous system in the vehicle.
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无线充电电动汽车对人体中枢神经系统电磁暴露剂量学模拟研究
为评价电动汽车磁耦合共振无线充电系统电磁暴露对人体中枢神经系统的安全性,利用COMSOL Multiphysics软件建立了不同材料和厚度的电动汽车模型、磁耦合共振无线充电系统模型和人体模型。仿真分析了采用不同屏蔽厚度的碳纤维增强塑料(CFRP)车身、铝合金车身和低碳钢车身的电动汽车中,无线充电系统产生的电磁场对人体中枢神经系统的电磁暴露。仿真结果表明,CFRP、铝合金和低碳钢三种材质的车辆都能有效屏蔽电磁场。CFRP和铝合金车体的屏蔽效果随着厚度的增加而提高,低碳钢车体的屏蔽效果随着厚度的增加而恶化。在最坏屏蔽条件下,人体头部的最大磁感应强度和电场强度分别为0.9µT和0.18 V/m,人体头部的电磁暴露水平低于国际非电离辐射防护委员会规定的27µT和2.97 V/m的公共暴露限值。结果表明,电动汽车磁耦合共振无线充电系统不会对车内人体中枢神经系统造成伤害。
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