MBR2X160A100

Diode Arrays Overview

The GeneSiC Semiconductor MBR2X160A100 is a Schottky rectifier module featuring an electrically isolated base plate within the SOT-227 package. It provides a maximum repetitive peak reverse voltage of 100 V and supports an average forward current of 320 A per package. The device exhibits a maximum instantaneous forward voltage of 0.84 V at 160 A with a junction temperature of 125 °C, alongside a peak forward surge current capability of 2000 A per leg. Operating temperatures range from -40 °C to 150 °C.

Diode Arrays Feature Summary

• High surge current capability for robust transient handling
• Electrically isolated base plate design for safety
• Low forward voltage drop characteristics

Diode Arrays Applications

• DC power supply circuits
• Free-wheeling rectification in motor drives
• Inverter bridge configurations

Diode Arrays Procurement Notes

Verify the specific datasheet version and manufacturer details upon ordering, as component specifications may vary between production batches or supplier sources. Confirm that the SOT-227 package dimensions align with your thermal management and mechanical mounting requirements before finalizing procurement decisions.

Diode Arrays Selection Notes

Select this module when applications require high current density combined with electrical isolation in a compact form factor. Ensure the system's thermal resistance allows the junction temperature to remain within the specified 150 °C limit under continuous load conditions.

Diode Arrays Part Context

This component belongs to the MBR2X series of silicon Schottky diode modules designed for high-efficiency power conversion. The series utilizes advanced packaging technologies to minimize parasitic inductance while maintaining high isolation voltages suitable for industrial power electronics.

Diode Arrays Replacement Considerations

Cross-reference with other SOT-227 packaged Schottky modules offering comparable 100 V ratings and similar current capacities to ensure pinout compatibility and thermal performance equivalence.