印刷电路板嵌入式功率半导体:技术综述

Till Huesgen
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引用次数: 5

摘要

与传统封装技术相比,将功率半导体器件嵌入印刷电路板(PCB)提供了几个好处。将半导体晶片集成到电路板中可以减小转换器的尺寸。这导致短电流回路,实现低互连电阻和寄生电感。两者都有助于提高系统级效率,因为传导和开关损耗降低了。此外,由于热阻低,使用厚铜基板可以有效地散热。因此,十多年来,PCB嵌入在电力电子界受到了广泛的关注。这篇文章的目的是提供一个全面的科学文献综述的主题,从基本的制造技术,模块或系统级演示的电气和热测试的可靠性研究。性能指标,如换相环路电感Lσ,芯片面积无关热阻Rth × Achip,允许与传统功率模块进行不同方法的比较和基准测试。一些出版物报道杂散电感低于1nh,芯片面积无关的热阻在20…30 mm²K/W范围内。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Printed circuit board embedded power semiconductors: A technology review

Printed circuit board embedded power semiconductors: A technology review

Embedding power semiconductor devices into printed circuit boards (PCB) provides several benefits compared to conventional packaging technologies. Integrating the semiconductor dies into the circuit board reduces the converter size. This results in short current loops, enabling low interconnection resistances and parasitic inductances. Both contribute to a higher system-level efficiency, as conduction and switching losses are reduced. Moreover, the use of thick Cu substrates allows efficient heat removal, due to a low thermal resistance. Therefore, PCB embedding has received a lot of attention in the power electronics community for more than a decade. This article aims to provide a comprehensive review of the scientific literature on the topic ranging from basic fabrication technology over module or system-level demonstrators for electrical and thermal testing to reliability studies. Performance indicators, such as the commutation loop inductance Lσ, the chip area independent thermal resistance Rth  ×  Achip, allow a comparison of different approaches and benchmarking with conventional power modules. Several publications report stray inductances below 1 nH and chip area independent thermal resistances in the range of 20…30 mm²K/W.

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来源期刊
Power electronic devices and components
Power electronic devices and components Hardware and Architecture, Electrical and Electronic Engineering, Atomic and Molecular Physics, and Optics, Safety, Risk, Reliability and Quality
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