碳化硅功率器件的工业市场开发

J. Palmour
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引用次数: 113

摘要

SiC功率器件的性能大大优于硅功率器件。SiC材料的质量和成本问题已经在很大程度上被克服,允许SiC开始与更传统的Si器件直接竞争。150mm衬底和外延现在已经商业化。商业发布的4H-SiC mosfet在1200 V额定值下的导通电阻(RON,SP)为5 mΩcm2现已上市,研究人员进一步优化了器件设计和制造工艺,将额定电压从900 V扩展到15 kV,用于更广泛的高功率高频能量转换应用。额定电压范围从900 V到15 kV的RON,SP低至2.3 mΩcm2对于1230 V和900 V的击穿电压,2.7 mΩcm2对于1620 V和1200 V的击穿电压,10.6 mΩcm2对于4160 V和3300 V的击穿电压,123 mΩcm2对于12 kV和10 kV的击穿电压,208 mΩcm2对于15.5 kV和15 kV的击穿电压。与硅igbt相比,所有这些器件都具有非常高的频率开关性能。对于更高的电压,SiC中的双极器件已经从15 kV到27 kV进行了演示。SiC gto已经显示出高达22千伏和200安培的能力。据报道,SiC n- igbt最高可达27 kV,容量为20 A。这是迄今为止报道的电压最高的半导体器件。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Silicon carbide power device development for industrial markets
SiC power devices have the ability to greatly outperform their Silicon counterparts. SiC material quality and cost issues have largely been overcome, allowing SiC to start competing directly with more traditional Si devices. 150 mm substrates and epitaxy are now commercially available. Commercially released 4H-SiC MOSFETs with a specific on-resistance (RON,SP) of 5 mΩcm2 for a 1200 V rating are now available, and research has further optimized the device design and fabrication processes to greatly expand the voltage ratings from 900 V up to 15 kV for a much wider range of high-power, high-frequency energy-conversion applications. Performance for voltage ratings from 900 V up to 15 kV have been achieved with a RON,SP as low as 2.3 mΩcm2 for a breakdown voltage (BV) of 1230 V and 900 V-rating, 2.7 mΩcm2 for a BV of 1620 V and 1200 V-rating, 10.6 mΩcm2 for a BV of 4160 V and 3300 V-rating, 123 mΩcm2 for a BV of 12 kV and 10 kV-rating, and 208 mΩcm2 for a BV of 15.5 kV and 15 kV-rating. All of these devices exhibit very high frequency switching performance over silicon IGBTs. For even higher voltages, bipolar devices in SiC have been demonstrated from 15 kV up to 27 kV. SiC GTOs have been shown up to 22 kV with 200 A capability. SiC n-IGBTs are reported up to 27 kV, with 20 A capability. This is the highest voltage semiconductor device reported to date.
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