SiC功率器件可靠性

D. Gajewski, B. Hull, D. Lichtenwalner, S. Ryu, E. Bonelli, H. Mustain, Gangyao Wang, S. Allen, J. Palmour
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引用次数: 36

摘要

由于4H-SiC的宽带隙和其他关键材料特性,SiC功率器件与竞争的si基功率器件相比具有性能优势。例如,SiC可以更容易地用于制造具有非常高额定电压(高达10 kV)的mosfet,并且具有较低的开关损耗。SiC功率器件的可靠性非常出色,并且由于SiC衬底质量、外延生长能力和器件加工的不断进步,可靠性不断提高。这使得SiC功率器件的商业应用不断加速增长。本文综述了功率SiC器件的损耗机理和固有可靠性性能,包括时相关介质击穿(TDDB)、加速寿命试验高温反向偏置(ALT-HTRB)、地面中子暴露和功率循环。本文还回顾了一些已知的失效机制,这些机制已经通过技术进步得到了表征和解决。最后,我们提供了现场返回数据,表明商业生产的SiC mosfet和肖特基二极管的FIT(每十亿器件小时故障)小于5 FIT,超过2万亿器件现场小时。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
SiC power device reliability
SiC power devices offer performance advantages over competing Si-based power devices, due to the wide bandgap and other key materials properties of 4H-SiC. For example, SiC can more easily be used to fabricate MOSFETs with very high voltage ratings (up to 10 kV), and with lower switching losses. The reliability of SiC power devices is excellent and has continued to improve due to continuing advancements in SiC substrate quality, epitaxial growth capabilities, and device processing. This has enabled the continually accelerating growth of SiC power device commercial adoption. This paper reviews the wear-out mechanisms and intrinsic reliability performance of power SiC devices as characterized by time-dependent dielectric breakdown (TDDB), accelerated life test high temperature reverse bias (ALT-HTRB), terrestrial neutron exposure, and power cycling. This paper also reviews some of the known failure mechanisms that have been characterized and addressed through technological advances. Finally, we present field return data that demonstrates less than 5 FIT (fails per billion device hours) for commercially produced SiC MOSFETs and Schottky diodes, with over 2 trillion device field hours.
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