Early diagnosis in power semiconductors: MOSFET, IGBT, emerging materials (SiC and GaNs)

A. Ginart, J. Aller, G. Vachtsevanos
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Abstract

The reliability of a power converter depends mainly on the endurance of its main component, the power semiconductor. Therefore, particular attention is paid in this chapter to understand the models that allow the identification of features and early indicators of problems that establish the groundwork for early fault diagnosis in inverters. The two major switch technologies that control the market are field-effect transistors (FETs) and insulated gate bipolar transistors (IGBTs), which are bipolar devices integrating concepts from bipolar junction transistors (BJTs; IGBTs) which are bipolar devices integrating concepts from BJTs and FETs. From the beginning of power electronics, silicon-based semiconductors have been the undisputed king, but modern silicon-based power semiconductors are being challenged by silicon carbide (SiC) and more recently by gallium nitride (GaN). Regardless of the semiconductor material, early diagnostics in semiconductors are based not only on the understanding of the failure mechanisms but also on the “parasitic structures” that are intrinsically associated with the fabrication of the device. The identification and characterization of these “parasitic or associated structures” allow for the development of unified models with general characteristics across different materials and structures of power semiconductors. The aging effects are, in general, reflected in the parasitic structures early in the process of degradation, creating an ideal approach for understanding failure propagation. Fortunately, semiconductor devices share a similar structure, and a standard model across all power semiconductors is used in this chapter to understand aging and to enable early diagnostics.
功率半导体的早期诊断:MOSFET, IGBT,新兴材料(SiC和gan)
功率变换器的可靠性主要取决于其主要部件功率半导体的耐用性。因此,在本章中,我们将特别注意了解能够识别问题特征和早期指标的模型,这些模型为逆变器的早期故障诊断奠定了基础。控制市场的两种主要开关技术是场效应晶体管(fet)和绝缘栅双极晶体管(igbt),它们是双极器件,集成了双极结晶体管(bjt);igbt是一种双极器件,集成了bjt和fet的概念。从电力电子学开始,硅基半导体就一直是无可争议的王者,但现代硅基功率半导体正受到碳化硅(SiC)和氮化镓(GaN)的挑战。无论半导体材料如何,半导体的早期诊断不仅基于对失效机制的理解,而且基于与器件制造内在相关的“寄生结构”。这些“寄生或相关结构”的识别和表征允许开发具有跨功率半导体不同材料和结构的一般特征的统一模型。一般来说,老化效应反映在退化过程的早期寄生结构中,这为理解失效传播创造了理想的方法。幸运的是,半导体器件具有类似的结构,本章使用了所有功率半导体的标准模型来理解老化并实现早期诊断。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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