Life Prediction Model for Press-Pack IGBT Module Based on Thermal Resistance Degradation

The contact interfaces of a press-pack insulated-gate bipolar transistor (PP-IGBT) module under fluctuating thermal stress will undergo minor friction and mutual sliding during service, which results in damage to the contact surface and a decline in the thermal performance of the contact interface. Therefore, the temperature inside the module will continue to increase, leading to eventual failure. In this work, a life prediction method based on thermal resistance degradation within a PP-IGBT module is established. The junction temperature can be determined via power loss and a resistance-capacitance (RC) thermal network model, and a life prediction model of the PP-IGBT module is developed based on thermal resistance degradation. The method considers the service quality under power cycling conditions and the influence of the self-accelerating effect of damage accumulation at the contact interface of the PP-IGBT module on fatigue life. The experimental results verify that the proposed PP-IGBT module life prediction method can effectively predict service life under power cycling conditions.

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Publication Details

Journal
Electronics
Published
2025-04-24
DOI
https://doi.org/10.3390/electronics14091726
Primary Topic
Silicon Carbide Semiconductor Technologies
Type
article
Field-Weighted Citation Impact
0.00

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article

Life Prediction Model for Press-Pack IGBT Module Based on Thermal Resistance Degradation

Xiang Wang, Tong An, Zhengqiang Yu, Rui Zhou et al.
Electronics
Silicon Carbide Semiconductor Technologies
article

Life Prediction Model for Press-Pack IGBT Module Based on Thermal Resistance Degradation

Xiang Wang, Tong An, Zhengqiang Yu, Rui Zhou, Yan Li, Jianqiang Li, Xiaochen Wang
article en

Abstract

The contact interfaces of a press-pack insulated-gate bipolar transistor (PP-IGBT) module under fluctuating thermal stress will undergo minor friction and mutual sliding during service, which results in damage to the contact surface and a decline in the thermal performance of the contact interface. Therefore, the temperature inside the module will continue to increase, leading to eventual failure. In this work, a life prediction method based on thermal resistance degradation within a PP-IGBT module is established. The junction temperature can be determined via power loss and a resistance-capacitance (RC) thermal network model, and a life prediction model of the PP-IGBT module is developed based on thermal resistance degradation. The method considers the service quality under power cycling conditions and the influence of the self-accelerating effect of damage accumulation at the contact interface of the PP-IGBT module on fatigue life. The experimental results verify that the proposed PP-IGBT module life prediction method can effectively predict service life under power cycling conditions.

ElectronicsVol. 14(9)
Beijing University of Technology (CN), Beijing Microelectronics Technology Institute (CN), Institute of Electronics (CN)
National Natural Science Foundation of China
Openalex Percentile: Top 93%
Silicon Carbide Semiconductor Technologies
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