1N3293

Single Diodes Overview

The Microchip Technology 1N3293 is a single standard recovery rectifier designed for stud mount applications. It features a maximum repetitive reverse voltage of 600 V and an average forward rectified current of 100 A. The device operates within a junction temperature range of -65°C to +200°C. Key electrical characteristics include a maximum forward voltage of 1.4 V at 200 A and a peak non-repetitive surge current capability of 2.5 kA. The component utilizes a DO-205AA (DO-8) package.

Single Diodes Feature Summary

• High thermal stability with a maximum junction temperature rating of +200°C
• Robust surge current handling capability up to 2.5 kA
• Standard recovery speed suitable for general-purpose power conversion

Single Diodes Applications

• Industrial power supplies
• Inverter circuits
• Battery chargers

Single Diodes Procurement Notes

Verify the specific datasheet revision when ordering, as manufacturing changes may affect packaging or labeling details without altering electrical performance. Confirm that the application environment supports the specified operating temperature range and mounting requirements for the stud-mount configuration.

Single Diodes Selection Notes

Select this component for high-current applications requiring reliable standard recovery characteristics. Ensure the circuit design accommodates the 600 V reverse voltage rating and that the thermal management system can handle the heat dissipation associated with 100 A continuous operation.

Single Diodes Part Context

This part belongs to the 1N32xx series of high-power silicon rectifiers manufactured by Microchip Technology. These components are engineered for rugged industrial environments and typically utilize DO-205AA packages to facilitate efficient heat transfer through stud mounting.

Single Diodes Replacement Considerations

Consult official substitution lists for compatible parts within the same series, such as the 1N3291R or 1N3296R, ensuring voltage and current ratings meet or exceed the original design requirements.