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The MIF150R12C1TL-BP is a silicon IGBT module manufactured by Micro Commercial Components (MCC). It features a 1200V collector-emitter voltage rating and a continuous collector current of 150A at a case temperature of 100°C. The device utilizes trench technology to achieve low saturation voltage with a positive temperature coefficient. It includes an ultra-fast soft recovery anti-parallel freewheeling diode and supports a maximum junction temperature of 175°C. The module has a screw mount installation style, operates between -40°C and +150°C, and provides a minimum isolation voltage of 2500V.
Verify the authenticity of the MIF150R12C1TL-BP component through authorized MCC distributors or direct procurement channels. Ensure the product documentation confirms RoHS compliance and lead-free finish status. Check for proper traceability codes on the module marking to prevent counterfeit parts. Confirm that the bulk packaging specifications match the required quantity per box and carton.
Select this module for applications requiring a 1200V blocking voltage and 150A continuous current handling. Consider the 175°C maximum junction temperature for high thermal performance requirements. Verify that the screw mount configuration fits the mechanical design constraints. Evaluate the switching loss characteristics against the specific gate resistance and operating frequency of the target inverter or drive system.
The MIF150R12C1TL belongs to the MIF series of IGBT modules from Micro Commercial Components. This series is designed for power electronics applications requiring robust switching capabilities. The C1 suffix typically denotes specific internal chip configurations within the MIF family. The BP suffix indicates RoHS compliant packaging.
Direct replacement requires matching the 1200V voltage rating, 150A current capacity, and similar package dimensions. Verify compatibility of the pinout and mounting hole patterns. Compare thermal resistance values and switching energy losses to ensure equivalent performance in the existing circuit design.