高关断增益高击穿电压n型SiC栅极关断晶闸管的设计与优化

Hongming Ma, Yan Wang
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引用次数: 0

摘要

利用Sentaurus TCAD软件对n型碳化硅(SiC)栅极关断晶闸管(GTO)进行了设计和仿真,给出了详细的优化过程和最终参数。通过引入三阶JTE结构,在90μm的漂移层上实现了超过15kV的最大击穿电压(BV),在0.28μm的蚀刻深度窗口下实现了超过13kV的BV。通过优化p基浓度,最终结构的最大关断增益为6.01,在200A/cm2时正向压降为3.51V。结果表明,该设计能够有效地提高电力系统的工作电压和工作电流,同时降低动态损耗。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Design and Optimization of N-type SiC Gate Turn-off Thyristor with High Turn-off Gain and High Breakdown Voltage
A N-type silicon carbide (SiC) gate turn-off thyristor (GTO) is designed and simulated with Sentaurus TCAD software, the detailed optimization process and final parameters are presented in this paper. By introducing 3-step JTE structure, a maximum breakdown voltage (BV) exceeding 15kV is achieved with 90μm drift layer, and over 13kV BV is available with an etching depth window of 0.28μm. By optimizing the P-base concentration, the maximum turn-off gain of the final structure is 6.01, and the forward voltage drop is 3.51V at 200A/cm2. The results show that this design can effectively increase the operating voltage and current of the power system while reducing dynamic loss.
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