一种确定半导体功率二极管温度分布的反方法

T. Lestina, D. Kaminski, E. Rodriguez
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引用次数: 5

摘要

提出了一种确定半导体功率二极管非均匀温度分布的方法。由于安装介质中的空洞或裂纹,功率半导体器件大结区的温度分布往往是不均匀的。由于器件封装通常阻止直接测量结温,因此所提出的技术只需要测量电压和电流。不需要关于空隙大小或类型的信息,也不需要求解传热方程。相反,温度分布是使用类似肖克利方程形式的电流-电压-温度关系来计算的。利用这些关系,通过结的温度被计算为最适合电压和电流的测量值。使用直径为18mm,额定电压为100a的功率二极管测试这种反方法。初步测量表明,该方法与现有技术一样精确地计算出峰值结温
本文章由计算机程序翻译,如有差异,请以英文原文为准。
An inverse method to determine the temperature profile on a semiconductor power diode
An approach is developed to determine the nonuniform temperature profile on a semiconductor power diode. The temperature distribution over the large junction area of power semiconductor devices is often nonuniform due to voids or cracks in the mountdown media. Since the device packaging typically prevents direct measurement of the junction temperature, the presented technique requires the measurement of voltages and currents only. No information regarding the size or type of the void is required, and heat transfer equations are not solved. Instead, the temperature distribution is calculated using current-voltage-temperature relationships similar in form to the Shockley equation. Using these relationships, the temperature across the junction are calculated as a best fit to the voltage and current measurements. This inverse method is tested using a power diode 18 mm in diameter and rated at 100 A. Preliminary measurements indicate that the method calculates peak junction temperature as accurately as existing techniques.<>
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