低损耗高磁感应强度铁磁材料电感功率传输耦合器的误差容限

Jinping Kang, Shaoyu Cheng, Yubo Wang, Xueying Zhang, Fuyao Yang, Guorui Xu, H. Eldeeb, Haisen Zhao
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摘要

在感应功率传输(IPT)系统中,不同的磁性材料在增强初级线圈和次级线圈之间的耦合程度和偏差容忍度方面具有不同的特性。然而,铁磁性材料中的铁损耗会显著降低IPT系统的传递效率。因此,在本研究中,研究了四种铁磁材料的IPT系统的性能和错位容差。首先,建立了IPT系统的等效电路模型,揭示了不同铁磁材料下系统效率的变化规律。然后,建立了磁力耦合器的三维有限元分析模型。此外,还建立了损耗测试平台,以获得准确的损耗系数。最后,对传输效率和磁场分布进行了研究。结果表明,采用垂直层合的纳米晶磁芯可以获得较高的效率和磁通密度。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Misalignment Tolerance of Inductive Power Transfer Coupler with Low Loss and High Magnetic Induction Ferromagnetic Materials
In an inductive power transfer (IPT) system, various magnetic materials have difference characteristics in enhancing the degree of coupling and misalignment tolerance between the primary and secondary coils. However, the iron losses in ferromagnetic materials may decrease the transfer efficiency of the IPT system significantly. Therefore, in this study, performance and misalignment tolerance of IPT systems with four types of ferromagnetic materials are investigated. Firstly, an equivalent circuit model of the IPT system is established and the variations of system efficiency with different ferromagnetic materials are also revealed. Then, a 3-D finite element analysis (FEA) model of the magnetic coupler is established. In addition, loss test platform is established to obtain the accurate loss coefficients. Finally, the transfer efficiency and magnetic field distributions are both investigated. The results show that the high efficiency and magnetic flux density can be achieved when nanocrystalline core with vertical laminations is used.
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