材料科学
碳化硅
温度循环
结温
可靠性(半导体)
分层(地质)
光电子学
半导体
宽禁带半导体
热导率
造型(装饰)
炸薯条
热阻
功率半导体器件
复合材料
热的
电气工程
功率(物理)
工程类
气象学
俯冲
量子力学
电压
古生物学
物理
生物
构造学
作者
Romina Sattari,Henk van Zeijl,Guoqi Zhang
标识
DOI:10.1109/ectc51909.2023.00223
摘要
Wide bandgap (WBG) semiconductor technologies enable significant progress in the emergence of power modules. Power cycling at elevated temperatures causes crack or delamination failure, especially at the die-attached bonded interface in the long term. Therefore, the in-situ reliability investigation of power modules, materials, and semiconductor packages is of great significance for modern industries. The silicon carbide's higher bandgap energy, intrinsic thermal conductivity, and mechanical strength make it a great candidate for the next generation of semiconductor, designed to operate in harsh conditions. In this study, a thin-film reconfigurable silicon carbide (SiC) thermal test chip (TTC) is designed and fabricated for reliability assessment in harsh environments. The proposed TTC realizes in-situ power/thermal cycling tests at elevated temperatures as well as characterization of novel materials such as nanoparticle-based sintering materials in die-attach technology and high-temperature-compatible epoxy molding compounds. The chip is equipped with thin-film platinum microheaters to realize modular power mappings, and platinum resistive temperature detectors (RTD) to examine the thermal reliability by monitoring the precise changes of the internal junction-to-case thermal resistance.
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