FYP2006DNTU

Diode Arrays Overview

The FYP2006DNTU is a dual Schottky barrier rectifier manufactured by onsemi, featuring a common cathode configuration within a TO-220-3 through-hole package. It supports a maximum repetitive reverse voltage of 60V and a continuous forward current of 20A. The device exhibits a low forward voltage drop of 670mV at rated current and handles an 80A non-repetitive surge current. Operating temperatures range from -65°C to +150°C, with a typical reverse leakage current of 1mA.

Diode Arrays Feature Summary

• Dual Schottky barrier rectifier structure with common cathode connection
• Low forward voltage drop for improved power efficiency
• High thermal stability suitable for demanding environments

Diode Arrays Applications

• DC-DC converter circuits
• Free-wheeling diodes in power supplies
• Polarity protection applications

Diode Arrays Procurement Notes

Verify the specific suffix 'TU' against the official datasheet to confirm tube packaging requirements. Ensure the procurement channel provides valid RoHS compliance documentation. Confirm that the TO-220-3 lead form matches the target PCB footprint specifications before finalizing orders.

Diode Arrays Selection Notes

Select this component when a high-current, low-voltage rectification solution is required. The dual common cathode design simplifies circuit topology compared to discrete single diodes. Evaluate the 60V rating margin against peak transient voltages in the application to ensure reliable operation under all conditions.

Diode Arrays Part Context

This part belongs to the FYP series of Schottky rectifiers from onsemi. It utilizes silicon technology to provide fast switching characteristics. The TO-220-3 package allows for effective heat dissipation through direct mounting to heatsinks, supporting high-power density designs in industrial and consumer electronics.

Diode Arrays Replacement Considerations

Direct substitutes must match the 60V/20A rating and TO-220-3 package. Verify pinout compatibility for common cathode configurations. Cross-reference electrical parameters such as forward voltage and reverse leakage to ensure equivalent performance in the existing circuit design.