Design considerations for high power density/efficient PCB embedded inductor

Mehrdad Biglarbegian, Neel Shah, I. Mazhari, B. Parkhideh
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引用次数: 17

Abstract

This paper presents the design and implementation of high power density and highly efficient air-core embedded inductor onto Printed Circuit Board (PCB) for 280W-5A/240nH, 280W-12A/150nH and 280W-18A/50nH. The toroidal structure due to its better performance on interfacing electromagnetic fields (EMI), is investigated. In addition, thermal restrictions are considered at high current capacity by reducing the inductor size. This will bring the advantage of lower resistivity and consequently the conduction loss. Other challenges such as temperature rise optimization of high current (18A) on the PCB is also investigated. First, parameter calculation for design consideration of an embedded inductor are presented, then JMAG simulations are used to observe precisely the temperature rise profile distribution in different sections of the inductor. An optimized design to achieve high efficient inductor and simultaneously high power density is proposed and several experiments and accurate designs are shown. The primary results show an acceptable temperature rise for high current (18A) inductor without the heat sink.
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高功率密度/高效PCB嵌入式电感的设计注意事项
本文介绍了280W-5A/240nH、280W-12A/150nH和280W-18A/50nH高功率密度、高效率空芯嵌入式电感在印刷电路板(PCB)上的设计与实现。由于环面结构具有较好的界面电磁场(EMI)性能,对其进行了研究。此外,通过减小电感尺寸,考虑了在大电流容量下的热限制。这将带来低电阻率的优势,从而降低传导损耗。其他挑战,如PCB上的大电流(18A)温升优化也进行了研究。首先给出了嵌入式电感器的设计参数计算,然后利用JMAG仿真精确观察了电感器不同截面的温升分布。提出了一种既能实现高效率电感又能实现高功率密度的优化设计方案,并进行了多次实验和精确设计。初步结果表明,在没有散热片的情况下,大电流(18A)电感的温升是可以接受的。
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