Junction technology in SiC for high-voltage power devices

T. Kimoto, K. Kawahara, H. Niwa, T. Okuda, J. Suda
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引用次数: 1

Abstract

In electric power conversion systems of power infrastructures, electric vehicles, and power supplies, Si-based power semiconductor devices are employed as a key hardware. Reduction of power dissipation in the conversion systems is strongly required for energy saving. In particular, ultrahigh-voltage power converters with high efficiency are essential to realize a stable and highly efficient electric power network by optimizing the use of solar power and wind-generated power in the future. The efficiency of power converters/inverters strongly relies on the performance of power semiconductor devices employed in the power electronic systems. Silicon carbide (SiC) is a newly-emerging wide bandgap semiconductor, by which high-voltage, low-loss power devices can be realized owing to its superior properties [1-3]. The major features of SiC power devices include high-voltage blocking capability, low on-state resistance, fast switching speed, and high-temperature operation.
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高压功率器件用SiC结技术
在电力基础设施、电动汽车和电源的电力转换系统中,硅基功率半导体器件是关键硬件。降低转换系统的功耗是节能的迫切要求。特别是高效率的超高压电源变换器,对于未来优化利用太阳能和风力发电实现稳定高效的电网至关重要。功率变换器/逆变器的效率很大程度上依赖于电力电子系统中采用的功率半导体器件的性能。碳化硅(SiC)是一种新兴的宽禁带半导体,其优越的性能可实现高电压、低损耗的功率器件[1-3]。SiC功率器件的主要特点包括高电压阻塞能力、低导通电阻、快速开关速度和高温工作。
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