感应无线电力传输系统的线圈比较与降阶原理

Yiming Zhang, Shuxin Chen, Xin Li, Zihao She, Fan Zhang, Yi Tang
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引用次数: 6

摘要

电动汽车大功率无线充电技术是电动汽车发展的关键技术。本文比较了四种类型的线圈:方形、圆形、矩形和双极,在耦合系数、单匝自感和最大功率能力随线圈宽度、气隙和对中偏差的变化。耦合系数仅由线圈宽度和气隙与线圈长度的比值以及线圈类型决定。单匝电感随线圈长度的增加而线性增加。当线圈宽度和气隙较小时,双极线圈的耦合系数最大;对于较大的线圈宽度和气隙,方形线圈具有最大的耦合系数。研究了各线圈的最大功率能力。在大学的研究实验室中,通常无法获得高功率的能力,因此采用缩小尺寸的原型来验证设计。研究和讨论了大功率无线充电系统的缩尺原理。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Coil Comparison and Downscaling Principles of Inductive Wireless Power Transfer Systems
High-power wireless charging for electric vehicles (EVs) is an essential technology for the development of EVs. This paper compares four coil types: square, circular, rectangular, and bipolar, in terms of coupling coefficients, single-turn self-inductances, and maximum power capability varying with the coil width, airgap and misalignment. The coupling coefficients are only determined by the ratio of coil width and airgap over coil length and the coil type. The single-turn inductance increases linearly with the increasing coil length. For a small coil width and airgap, the bipolar coil has the largest coupling coefficient; for a large coil width and airgap, the square coil has the largest coupling coefficient. The maximum power capability of each coil is studied. High-power capability is normally unavailable in research laboratories of universities, so downscaled prototypes are implemented to verify the design. The downscaling principles for high-power wireless charging systems are investigated and discussed.
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