
CLC number: TN99
On-line Access: 2024-08-27
Received: 2023-10-17
Revision Accepted: 2024-05-08
Crosschecked: 2015-12-08
Cited: 1
Clicked: 9808
Qing-feng Li, Shao-bo Chen, Wei-ming Wang, Hong-wei Hao, Lu-ming Li. Improving the efficiency of magnetic coupling energy transfer by etching fractal patterns in the shielding metals[J]. Frontiers of Information Technology & Electronic Engineering,in press.https://doi.org/10.1631/FITEE.1500114 @article{title="Improving the efficiency of magnetic coupling energy transfer by etching fractal patterns in the shielding metals", %0 Journal Article TY - JOUR
Abstract: The paper investigated fractal patterns for eddy current suppression and efficiency improvement. Both of simulations and experiments are detailing presented. It is a high quality paper overall.
基于分形图案蚀刻屏蔽金属提高磁耦合能量传输效率创新点:提出在屏蔽金属上蚀刻具备分形特征的几何图案的方法。该方法改变了磁耦合能量传输中金属表面的涡流分布,有效抑制了其涡流效应,能量传输效率接近无金属介质时的水平。 方法:首先,利用电磁仿真方法建立模拟层状金属屏蔽的磁耦合能量传输模型(图1)。基于仿真模型找出可有效抑制涡流效应的蚀刻图案的特征。其次,在满足这些特征的条件下,提出并比较几种不同分形图案(图4)蚀刻金属后的能量传输性能,选择性能最好的图案(图4g)计算其频率响应,并探讨其抑制涡流效应的机制。然后,仿真研究了多层金属应用背景下,采用分形图案蚀刻金属以提高传输效率的方法。最后,建立仿真模型对应的实验平台,对可有效抑制金属涡流效应的图案特征,以及多层金属应用下用分形图案蚀刻方法抑制涡流效应的结果进行实验验证。 结论:针对磁耦合能量传输中普遍存在的层状金属应用环境,提出了采用分形图案蚀刻金属的方法,有效抑制了金属涡流效应,提高能量传输效率。 关键词组: Darkslateblue:Affiliate; Royal Blue:Author; Turquoise:Article
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