1N2135RA

Single Diodes Overview

The Microchip Technology 1N2135RA is a standard recovery silicon rectifier diode designed for high-power applications. It features a maximum repetitive reverse voltage of 400 V and an average rectified forward current rating of 70 A. The device utilizes a DO-5 (DO-203AB) axial leaded package, suitable for chassis or stud mounting configurations in industrial environments.

Single Diodes Feature Summary

• High current handling capability with a 70 A average rectified forward current rating
• Robust reverse voltage blocking up to 400 V for demanding power circuits
• Standard recovery characteristics optimized for general-purpose rectification tasks

Single Diodes Applications

• Industrial power supply rectification
• Battery charging systems
• DC motor drive circuits

Single Diodes Procurement Notes

Verify the manufacturer designation carefully, as this component type is produced by multiple vendors including Vishay and Naina Semiconductor. Confirm that the specific part number suffix matches your required electrical tolerances and packaging specifications before procurement to ensure compatibility with existing designs.

Single Diodes Selection Notes

Select this component when a robust axial leaded diode is required for high-current DC applications. Ensure the thermal management strategy supports the package's dissipation capabilities. Verify that the 400 V reverse voltage rating exceeds the peak inverse voltage present in the target circuit under all operating conditions.

Single Diodes Part Context

This component belongs to the standard rectifier diode family characterized by axial leads and high current ratings. It serves as a fundamental building block in power conversion stages where reliability and surge current handling are prioritized over ultra-fast switching speeds.

Single Diodes Replacement Considerations

Cross-reference with Vishay VS-1N2135RA or Naina Semiconductor 1N2135AR. Verify that substitute parts maintain identical pinout, voltage ratings, and current capacities to ensure seamless integration without circuit modification.