4.8 Article

High-Voltage Hybrid IGBT Power Modules for Miniaturization of Rolling Stock Traction Inverters

Journal

IEEE TRANSACTIONS ON INDUSTRIAL ELECTRONICS
Volume 69, Issue 2, Pages 1266-1275

Publisher

IEEE-INST ELECTRICAL ELECTRONICS ENGINEERS INC
DOI: 10.1109/TIE.2021.3059544

Keywords

Silicon carbide; Silicon; Inverters; Insulated gate bipolar transistors; Topology; Substrates; Multichip modules; High-speed railway; insulated-gate bipolar transistors (IGBTs); silicon carbide (SiC); traction inverter

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This article reports on the development of a 3.3-kV/450-A half-bridge insulated-gate bipolar transistor power module that combines silicon and silicon carbide technologies. The module aims to miniaturize the traction inverters used in Chinese high-speed railway rolling stock. By reducing power dissipation, the module can effectively downsize key components and offers advantages in loss reduction and potential system miniaturization.
A type of 3.3-kV/450-A half-bridge insulated-gate bipolar transistor power module combining the silicon (Si) and silicon carbide (SiC) technologies has been developed and reported in this article, for the miniaturization of the Chinese high-speed railway rolling stock traction inverters. This module is developed by integrating the next-generation industrial standard high-voltage packaging topology and the state-of-the-art 3.3 kV wide bandgap semiconductor chip technology, to reduce the waste power dissipation during operation, which in turn can lead to effective downsizing of key components in the traction inverter design. The module layout characteristics and the SiC Schottky barrier diodes design for substitution of the conventional Si fast recovery diodes will be described in detail. The mechanical, thermal, and electrical performances of the hybrid module are compared comprehensively with the Si-based counterpart. Based on the experimental results, an inverter system level evaluation of both modules is also conducted by electro-thermal simulation. The hybrid module shows advantages in loss reduction leading to great potential of system miniaturization, which is a cost effective solution for massive upgrading of the existing high-speed train traction inverters.

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