Soft magnetic materials for power inductors: State of art and future development

Jiayi He , Han Yuan , Min Nie , Hai Guo , Hongya Yu , Zhongwu Liu , Rong Sun
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Abstract

Soft magnetic materials play important roles in both power generation and conversion devices. One of their important applications is power inductor, which acts as an energy transfer station, transferring the direct current energy and blocking the high-frequency alternating current. With the rapid development of circuit topologies and power semiconductors, the power inductors with higher inductance performance, smaller size and higher energy efficiency are required. Based on the world-wide progress, this review gives a comprehensive and critical description on the fundamentals and development of the soft magnetic materials for the power inductors. The relationship between the properties of soft magnetic materials and the inductance performance of device is discussed in detail. The industry status of the power inductors based on both soft ferrites and soft magnetic composites (SMCs) is analyzed. The material selection, fabrication process and microstructure-properties relationships for ferrites and SMC materials are summarized. In particular, this review emphatically compares the difference between the conventional magnetic cores and the multilayer/molding inductors in processing and material selection. The challenges and opportunities of the soft magnetic materials are also highlighted for future development.

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功率电感用软磁材料:现状与未来发展
软磁材料在发电和转换装置中都起着重要的作用。其中一个重要的应用是功率电感,它作为一个能量转换站,传递直流电能量,阻断高频交流电。随着电路拓扑结构和功率半导体的快速发展,对电感性能更高、尺寸更小、能效更高的功率电感提出了更高的要求。本文结合国内外软磁材料的研究进展,对软磁材料的基本原理和发展进行了较为全面的评述。详细讨论了软磁材料性能与器件电感性能之间的关系。分析了基于软铁氧体和软磁复合材料的功率电感的工业现状。综述了铁氧体材料和SMC材料的材料选择、制备工艺和显微组织性能关系。本文着重比较了传统磁芯与多层/成型电感在工艺和材料选择上的差异。同时也强调了软磁材料未来发展面临的挑战和机遇。
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