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引用次数: 18
摘要
碳化硅(SiC)等新材料技术在开发用于下一代航空航天电力电子应用的紧凑型高功率变换器方面前景广阔。本文提出了一种考虑变换器各部件、源和负载之间非线性相互作用的变换器优化设计方法。与硅功率变换器相比,100 V-2 kV, 7 kW SiC DC-DC功率变换器在150/spl度/C下工作,变换器功率密度提高了50%。本文报道了采用商用肖特基二极管和PiN二极管以及JFET的硬开关和软开关SiC功率变换器在较低功率水平下的实验结果。
Silicon carbide power converters for next generation aerospace electronics applications
New material technologies such as Silicon Carbide (SiC) are promising in the development of compact high-power converters for next generation aerospace power electronics applications. This paper presents an optimized converter design approach that takes into consideration non-linear interactions among various converter components, source and load. A 50% improvement in converter power density is calculated for a 100 V-2 kV, 7 kW SiC DC-DC power converter operating at 150/spl deg/C as compared to a silicon power converter. Experimental results of hard- and soft-switched SiC power converters using commercial Schottky and PiN diodes and JFET's are reported at lower power levels.