Surface spiral coil design methodologies for high efficiency, high power, low flux density, large air-gap wireless power transfer systems

Seung-Hwan Lee, R. Lorenz
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引用次数: 17

Abstract

It was demonstrated that a surface spiral winding coil has low skin- and proximity effect losses in MHz, high power wireless power transfer systems. However, it was not clearly explained why the surface spiral winding coil is appropriate to use in kW level, low flux density, and safe wireless power transfer systems. Furthermore, research has not focused on the losses of a dielectric substrate of a surface spiral winding coil, even though the dielectric loss can overwhelm the skin- and proximity effect losses at MHz frequencies. In the first part of this paper, the benefits of the surface spiral winding coils for large air-gap, kW level wireless power transfer systems are discussed. In the following section, various sources of the power dissipation in surface spiral coils are identified. The discussion focuses on the dielectric losses in the substrates of surface spiral winding coils. Low-loss substrate design guidelines are proposed using the investigation results. The proposed design guidelines are evaluated by means of FEA simulation.
表面螺旋线圈设计方法用于高效率、高功率、低磁通密度、大气隙无线电力传输系统
结果表明,表面螺旋线圈在兆赫、高功率无线电力传输系统中具有较低的趋肤效应和接近效应损耗。然而,并没有清楚地解释为什么表面螺旋绕组线圈适用于kW级,低磁通密度和安全的无线电力传输系统。此外,研究还没有集中在表面螺旋绕组线圈的介电基板的损耗上,即使介电损耗可以压倒在MHz频率下的趋肤效应和邻近效应损耗。本文第一部分讨论了表面螺旋线圈在大气隙、kW级无线电力传输系统中的优点。在下一节中,确定了表面螺旋线圈中功率耗散的各种来源。重点讨论了表面螺旋线圈衬底的介电损耗。根据调查结果提出了低损耗衬底设计指南。通过有限元模拟对所提出的设计准则进行了评价。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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