集成结势垒控制肖特基整流器SiC MOSFET的雪崩耐用性和反偏置可靠性

C. Yen, F. Hsu, C. Hung, Chwan-Ying Lee, L. Lee, Yafang Li, K. Chu
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引用次数: 15

摘要

采用一种工艺和可扩展结构实现了集成结势垒控制肖特基二极管(JMOS)的SiC MOSFET。JMOS可以提供与标准双植入MOSFET (DMOS)相同芯片尺寸的相似导通电阻和漏源击穿电压。对于650V的JMOS,集成肖特基二极管的理想因数和肖特基势垒高度分别为1.13和1.22eV,对于1200V的JMOS,理想因数和势垒高度分别为1.11和1.27eV。650V JMOS二极管正向电流小于44A, 1200V JMOS二极管正向电流小于58A时,JMOS二极管正向压降低于DMOS。650V和1200V的JMOS在150°C下的反向回收电荷比相应的DMOS低22%和53%。650V和1200V JMOS的峰值反向恢复电流比相应的DMOS低26%和40%。JMOS的输出电容也低于DMOS。650V和1200V JMOS的雪崩能(Eas)分别为1682mJ和1270mJ,虽小于相应的DMOS,但17.2 J/cm2的Eas仍优于硅的同类器件。二极管正向电流应力、二极管浪涌电流测试和1000小时高温反向偏置测试结果表明,JMOS是可靠的。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Avalanche ruggedness and reverse-bias reliability of SiC MOSFET with integrated junction barrier controlled Schottky rectifier
A process and a scalable structure were used to implement the SiC MOSFET with integrated junction barrier controlled Schottky diode (JMOS) without area penalty. The JMOS could provide similar on-resistance and drain-source breakdown voltage with the same chip size as the standard double-implanted MOSFET (DMOS). The ideal factor and Schottky barrier height of integrated Schottky diode were 1.13 and 1.22eV for 650V JMOS and 1.11 and 1.27eV for 1200V JMOS. The diode forward voltage drop of JMOS were lower than DMOS when the diode forward current were smaller than 44A for 650V JMOS and 58A for 1200V JMOS. The reverse recovery charge of 650V and 1200V JMOS at 150°C were 22% and 53% lower than corresponding DMOS. The peak reverse recovery current of 650V and 1200V JMOS were 26% and 40% lower than corresponding DMOS. The output capacitance of JMOS were also lower than DMOS. The avalanche energy (Eas) of 650V and 1200V JMOS were 1682mJ and 1270mJ, smaller than the corresponding DMOS, but a 17.2 J/cm2 Eas is still superior to silicon counterparts. The results of diode forward current stress, diode surge current test and 1000 hours high temperature reverse bias test demonstrated that JMOS is reliable.
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