DD89N12KAHPSA1

Diode Arrays Overview

The DD89N12KAHPSA1 is a silicon diode array module manufactured by Infineon Technologies. It features a reverse voltage rating of 1200 V and a forward current capacity of 140 A. The component utilizes screw mount installation within a discrete power module package.

Diode Arrays Feature Summary

• High-voltage rectification capability for demanding power conversion environments
• Robust mechanical construction designed for secure screw mounting applications

Diode Arrays Applications

• Industrial power supply systems requiring high voltage isolation
• Motor drive circuits utilizing robust rectification stages
• General purpose high-power DC conversion infrastructure

Diode Arrays Procurement Notes

Verify the specific suffix against official Infineon documentation to confirm exact electrical characteristics and pinout configuration. Ensure the procurement channel provides valid traceability records. Confirm that the component matches the required thermal management specifications for the intended application environment before finalizing orders.

Diode Arrays Selection Notes

Select this module when a single unit must handle high reverse voltages alongside substantial continuous forward currents. The screw mount interface facilitates integration into heavy-duty heat sink assemblies. Evaluate thermal resistance requirements to ensure adequate cooling solutions are implemented for sustained operation under load conditions.

Diode Arrays Part Context

This component belongs to the broader category of discrete and power modules offered by Infineon Technologies. It serves as a specialized semiconductor solution for industrial applications where reliability and high power density are critical design parameters. The module integrates multiple diode functions into a single compact form factor.

Diode Arrays Replacement Considerations

Consult official Infineon substitution guides for verified alternatives. Cross-reference reverse voltage ratings and forward current capacities to ensure functional compatibility with existing circuit designs without compromising system safety margins.