基于SiC芯片的大功率高性能电源封装研究

G. Tang, L. Wai, T. Lim, Zhaohui Chen, Yong Liang Ye, R. Singh, L. Bu, B. L. Lau, T. Chai, Kazunori Yamamoto, Xiaowu Zhang
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引用次数: 1

摘要

本文设计并开发了一种具有双面散热能力的基于SiC器件的大功率、高性能电源封装。开发的电源封装主要由高额定功率的SiC芯片、定制的金属夹构成电气互连,以及具有特殊设计腔体的有源金属钎焊(AMB)衬底组成。定制的互连和在开发的封装中并联高功率SiC器件的使用使其能够用于高功率应用。通过使用耐高温材料进行互连和封装,获得了高温可持续性。通过缩短从SiC芯片到液冷散热器的传热路径和采用双面液冷方案,实现了高的散热性能。此外,通过将芯片嵌入到AMB基板中,并将线键互连替换为扁平铜夹互连,开发的电源封装具有低轮廓。与传统的线键合电源封装的热性能相比,所开发的电源封装的热性能得到了显著改善(> 50%)。沿着电流流动路径获得了非常低的环路电感(即在1Mhz频率下为2.7nH)。对耐高温封装材料(如模具附件和封装材料)进行了评估。所开发的电源组件已经制造完成,并通过了规定的可靠性评估,即无偏高加速应力测试(HAST)、温度循环(TC)测试(40 ~200°C)、250°C高温储存(HTS)测试和功率循环(PC)测试($\Delta$ T= 150°C)。
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Development of SiC Chip Based Power Package for High Power and High Performance Application
In this paper, a SiC device based power package with double side cooling capability is designed and developed for high power, high performance application. The developed power package mainly consists of high power rated SiC chips, customized metal clips forming the electrical interconnections, and active metal brazing (AMB) substrates with specially designed cavities. the customized interconnects and the use of paralleled high-power SiC devices in the developed package enable its usage for high power applications. High temperature sustainability is obtained by utilizing the high temperature endurable materials for the interconnections and encapsulation. High thermal performance is realized by shortening the heat transfer path from the SiC chips to liquid cooling heat sink and implementing the double side liquid cooling scheme. In addition, by embedding the chip inside the AMB substrate and replacing the wire-bond interconnections with the flatted copper clip interconnections, the developed power package is with low profile. Significant improvement (> 50%) of the thermal performance has been achieved for the developed power package as compared with the thermal performance of the conventional wire bonded power package. Very low loop inductance along the electric current flow path has been obtained (i.e., 2.7nH at 1Mhz of frequency). High temperature endurable package materials (e.g., die attach and encapsulation material) have been evaluated. The developed power package has been fabricated and passed the specified reliability assessments, i.e., unbiased Highly Accelerated Stress Test (HAST), temperature cycling (TC) test (40 ~200 °C), High temperature storage (HTS) test at 250 °C and power cycling (PC) test ($\Delta$ T= 150 °C).
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