BAT54-02V-V-G-18

Single Diodes Overview

The BAT54-02V-V-G is a small signal Schottky diode manufactured by Vishay Semiconductors. It features a repetitive peak reverse voltage of 30 V and a forward continuous current rating of 200 mA. The device utilizes a space-saving SOD-523 package with a junction-to-ambient thermal resistance of 680 K/W. Electrical characteristics include a maximum leakage current of 2 µA at 25 V, a reverse recovery time of 5 ns, and a typical capacitance of 10 pF at 1 MHz.

Single Diodes Feature Summary

• Very low turn-on voltage and fast switching capabilities
• Protected by a PN junction guard ring against excessive voltage such as electrostatic discharges

Single Diodes Applications

• High-speed switching circuits
• Low voltage rectification applications
• ESD protection in sensitive electronic components

Single Diodes Procurement Notes

Verify the specific ordering suffix to confirm packaging options. The -18 suffix indicates a 3K quantity per 13-inch reel, while the -08 suffix denotes a 3K quantity per 7-inch reel. Ensure compliance with RoHS Directive 2002/95/EC requirements for your manufacturing process.

Single Diodes Selection Notes

Select this component when a compact surface-mount solution is required for high-frequency signal processing. The SOD-523 footprint minimizes board space usage compared to larger packages. Verify that the 30 V reverse voltage rating aligns with the maximum operating voltages of the target circuit design.

Single Diodes Part Context

This part belongs to the BAT54 series of small signal Schottky diodes from Vishay. It shares similar electrical performance profiles with other variants in the family but is distinguished by its specific SOD-523 mechanical housing and tape-and-reel packaging configurations.

Single Diodes Replacement Considerations

BAT54W-G3-08

Single Diodes FAQ

What is the maximum surge forward current rating?

The maximum surge forward current (IFSM) rating is 600 mA.

How does temperature affect the forward voltage?

The forward voltage decreases as the junction temperature increases, as shown in the typical forward voltage versus current curves across various temperatures.