为具有高 dv/dt 的高压 SiC MOSFET 提供超快响应的去耦保护

IF 7.9 Q1 ENGINEERING, ELECTRICAL & ELECTRONIC IEEE Open Journal of Industry Applications Pub Date : 2024-01-22 DOI:10.1109/OJIA.2024.3353309
Xingxuan Huang;Dingrui Li;Min Lin;Leon M. Tolbert;Fred Wang;William Giewont
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引用次数: 0

摘要

本文介绍了一种针对高压(>3.3 kV)SiC MOSFET 的超快响应失压保护方案。其工作原理与为高压 SiC MOSFET 设计的传统失压保护相同,但其消隐时间是通过充分考虑快速导通瞬态期间高负 dvds/dt 的影响来实现的。在电路与传统失效保护相同的情况下,当拟议的保护方案用于保护高压 SiC MOSFET 时,它能显著缩短失效保护的响应时间。此外,所提出的超快响应保护方案还具有抗噪能力强、成本低和实施简单等特点。通过利用正常导通瞬态期间的高 dv/dt,当 MOSFET 开关速度较快时,所提出的保护方案甚至可以更快。本文详细介绍了设计细节和各种短路故障下的响应速度分析。建立了一个基于离散 10 kV/20 A SiC MOSFET 的半桥相腿,以演示所提出的保护方案。6.5 kV 下的实验结果验证了所提出的脱扣保护方案的超快响应速度(硬开关故障下 115 ns 响应时间,负载故障下 155 ns 响应时间)和强大的抗噪能力。
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Desat Protection With Ultrafast Response for High-Voltage SiC MOSFETs With High dv/dt
This article presents a desat protection scheme with the ultrafast response for high-voltage (>3.3 kV) SiC MOSFETs. Its working principle is the same as the conventional desat protection designed for high-voltage SiC MOSFETs, yet its blanking time is implemented by fully considering the influence of high negative dvds/dt during the fast turn- on transient. With the same circuitry as the conventional desat protection, the proposed protection scheme can significantly shorten the response time of the desat protection when it is used to protect high-voltage SiC MOSFETs. In addition, the proposed protection scheme with ultrafast response features strong noise immunity, low-cost, and simple implementation. By taking advantage of the high dv/dt during the normal turn- on transients, the proposed protection scheme can be even faster when the MOSFET has a faster switching speed. Design details and the response speed analysis under various short circuit faults are presented in detail. A half bridge phase leg based on discrete 10 kV/20 A SiC MOSFETs is built to demonstrate the proposed protection scheme. Experimental results at 6.5 kV validate the ultrafast response (115 ns response time under a hard switching fault, 155 ns response time under a fault under load), and strong noise immunity of the proposed desat protection scheme.
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