HERAF1603G C0G

Single Diodes Overview

HERAF1603GC0G is a glass passivated ultrafast rectifier manufactured by Taiwan Semiconductor. It features a single-phase, one-element silicon construction housed in an ITO-220AC package. The device supports a repetitive reverse voltage of 200V and conducts a continuous forward current of 16A. It is designed for high-efficiency applications requiring low forward voltage drop and high surge current capability.

Single Diodes Feature Summary

• Glass passivated chip junction for enhanced reliability
• High efficiency with low forward voltage characteristics
• Capable of handling high surge currents

Single Diodes Applications

• Low voltage high frequency inverters
• Free wheeling circuits
• Polarity protection applications

Single Diodes Procurement Notes

Verify the specific suffix C0G against official datasheets to confirm packaging details such as reel or tube configuration. Ensure the part number matches the exact voltage rating of 200V and current rating of 16A required for the target circuit design before procurement.

Single Diodes Selection Notes

Select this component for designs requiring fast recovery characteristics in power conversion stages. The TO-220AC style package facilitates through-hole mounting and heat dissipation. Confirm that the 200V reverse voltage rating provides sufficient margin for the peak inverse voltage present in the application environment.

Single Diodes Part Context

This part belongs to the HERAF series of ultrafast rectifiers from Taiwan Semiconductor. These devices are engineered to replace standard rectifiers in high-frequency switching applications where reduced recovery time and lower power loss are critical for system performance and thermal management.

Single Diodes Replacement Considerations

Check for direct substitutes within the same manufacturer's HERAF series with matching voltage ratings. Verify pinout compatibility and thermal resistance specifications when considering alternatives from other manufacturers to ensure equivalent performance in the intended circuit.