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Rohm Expands SiC Power Module Product Lineup Accelerating High Efficiency and Miniaturization
Developed with 1200V 400A and 600A Ratings for Inverters and Converters
Rohm has expanded its Full SiC power module lineup that contributes to high efficiency and miniaturization of high-power applications.
The Full SiC power modules were developed with 1200V 400A and 600A ratings for inverters and converters used in industrial power supplies, photovoltaic power conditioners, and UPS systems.

The company stated, "Through the development of a new package that optimizes our proprietary internal module structure and thermal design, we have realized the 600A rating." Additionally, compared to general IGBT modules with equivalent current ratings, switching loss is reduced by 64% (at chip temperature of 150℃), contributing to energy savings in applications.

Consequently, not only miniaturization of peripheral components due to high-frequency operation, but also miniaturization of cooling systems becomes possible as the effect of switching loss reduction during high-frequency operation becomes even greater. For example, when using SiC modules, based on calculation formulas derived from loss simulations in cooling systems, the liquid-cooled heatsink can be miniaturized by 88% compared to IGBT modules with equivalent current ratings.
Sample shipment and mass production of this module are scheduled to begin in June.
Rohm has expanded its Full SiC power module lineup that contributes to high efficiency and miniaturization of high-power applications.
The Full SiC power modules were developed with 1200V 400A and 600A ratings for inverters and converters used in industrial power supplies, photovoltaic power conditioners, and UPS systems.
The company stated, "Through the development of a new package that optimizes our proprietary internal module structure and thermal design, we have realized the 600A rating." Additionally, compared to general IGBT modules with equivalent current ratings, switching loss is reduced by 64% (at chip temperature of 150℃), contributing to energy savings in applications.

Consequently, not only miniaturization of peripheral components due to high-frequency operation, but also miniaturization of cooling systems becomes possible as the effect of switching loss reduction during high-frequency operation becomes even greater. For example, when using SiC modules, based on calculation formulas derived from loss simulations in cooling systems, the liquid-cooled heatsink can be miniaturized by 88% compared to IGBT modules with equivalent current ratings.
Sample shipment and mass production of this module are scheduled to begin in June.
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신윤오 Reporter













