MSRT20060AD

Overview

The GeneSiC Semiconductor MSRT20060AD is a silicon standard recovery diode module rated for 600 V repetitive peak reverse voltage and 200 A average forward current per leg. It utilizes an electrically isolated three-tower package with a maximum thermal resistance of 0.35 °C/W at Tj = 150 °C. The device supports a junction temperature range from -55 °C to +150 °C and withstands a peak forward surge current of 3000 A.

Feature Summary

• Features an electrically isolated base plate within a three-tower package design
• Provides high surge capability for robust power handling
• Not sensitive to electrostatic discharge

Applications

• High-power rectification circuits
• Industrial power conversion systems
• Isolated DC-DC converter topologies

Procurement Notes

Verify the specific voltage rating suffix, as the MSRT200 series spans 600 V to 1000 V options. Confirm the package type matches the required isolation specifications. Ensure thermal management solutions align with the specified junction-to-case thermal resistance values for reliable operation under load conditions.

Selection Notes

Select this component when high current density and electrical isolation are required in a compact form factor. The three-tower configuration facilitates efficient mounting and heat dissipation. Consider the 3000 A surge rating for applications experiencing significant inrush currents during startup or fault conditions.

Part Context

This module belongs to the MSRT200XXAD family, which includes variants with different voltage ratings such as 800 V and 1000 V. All variants share the same 200 A current rating and physical package dimensions, allowing for design flexibility while maintaining consistent mechanical integration across different voltage requirements.

Replacement Considerations

Direct substitutes include other models within the MSRT200XXD series with matching voltage ratings. Verify that alternative components maintain equivalent thermal resistance and surge current capabilities to ensure system reliability without redesigning the cooling infrastructure.