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The FMG2G400US60 is a high-power IGBT module manufactured by Fairchild Semiconductor, designed for demanding industrial applications. It features a 600V collector-emitter breakdown voltage and supports a maximum continuous collector current of 400A. The device utilizes field-stop technology to achieve low saturation voltage, enhancing efficiency in high-current switching scenarios. Packaged in a screw-mount configuration suitable for robust thermal management, this module integrates an NTC thermistor for precise temperature monitoring. It operates within a junction temperature range of -40°C to +150°C and has a maximum power dissipation rating of 1.136 kW.
Verify the component status carefully as distribution channels may list obsolete or end-of-life inventory. Confirm RoHS compliance requirements against specific project standards, noting that older batches may not meet current environmental directives. Ensure sourcing from authorized distributors to guarantee authenticity and traceability of the semiconductor die.
Select this module when designing circuits requiring high current handling capabilities up to 400A at 600V levels. Evaluate the thermal resistance characteristics of the heatsink interface to ensure the junction temperature remains within the specified operational limits under full load conditions. Consider the gate drive requirements compatible with the integrated diode configuration for proper switching control.
This component belongs to Fairchild's FMG series of high-power IGBT modules, which are engineered for robust performance in heavy-duty power electronics. The series typically includes variants with different current ratings, allowing designers to scale power density while maintaining consistent packaging and electrical interface standards across product lines.
Direct replacements should be sought from the same FMG series family or equivalent field-stop IGBT modules from other manufacturers offering identical 600V/400A specifications. Verify pinout compatibility and thermal pad dimensions before substitution to ensure mechanical fit without redesigning the PCB or chassis.