铁路电感式输电系统的无源屏蔽设计

K. Lin, Xiwen Xu, Tiefu Zhao, Shen-En Chen, N. Braxtan, D. Cook, D. Ward
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引用次数: 0

摘要

本文提出了一种用于铁路电感式电力传输系统的屏蔽设计方案,以减少发射线圈和接收线圈之间的电磁场泄漏。对于大功率应用,通过较大的气隙产生强磁场,造成人体健康和安全问题。为了满足国际非电离辐射防护委员会(ICNIRP)设定的标准要求,提出了一种屏蔽设计来限制EMF的发射。为了验证线圈结构中导电材料和不同几何形状的屏蔽设计的影响,利用Ansys Maxwell软件对磁场密度的分布进行了模拟。结果表明,该设计显著降低了IPT系统周围的漏磁场密度,在一定距离内符合ICNIRP标准。根据分析和结果,在IPT系统的接收侧水平屏蔽了一块尺寸合适的铝板。本文研制了一种5kw IPT系统,根据机车的约束条件,采用新颖的W-I型联轴器设计。为了验证所提出的设计,开发了IPT系统的原型,气隙为5英寸,工作频率为85kHz。
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Passive Shielding Design of an Inductive Power Transfer System for Railway Applications
In this paper, a proposed shielding design for the Inductive power transfer (IPT) system for railway applications to reduce the electromagnetic field leakage between the transmitter and the receiver coils is presented. For high power applications, a strong magnetic field generates through a large air gap, resulting in human body health and safety problems. To satisfy standard requirements, the reference level set by the International Commission on Non-Ionizing Radiation Protection (ICNIRP), a shielding design is proposed to limit EMF emission. To demonstrate the effect of the coil structure with a conductive material and different geometry of the shielding design, the distribution of the magnetic field density is simulated by using Ansys Maxwell. Results show that the proposed design considerably reduces the leakage magnetic field density around the IPT system and complies with the ICNIRP standard at a certain distance. Based on the analysis and results, the IPT system has been shielded with an aluminum plate horizontally with the appropriate size on the receiver side. A 5-kW IPT system is developed in this paper, with a novel W-I coupler design according to the constraints on locomotives. The prototype of the IPT system is developed to validate the proposed design, with an air gap of 5 inches and an 85kHz operating frequency [1].
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