SMBG4735E3/TR13

Single Zener Diodes Overview

The SMBG4735E3/TR13 is a silicon Zener diode manufactured by Microsemi Corporation, designed for voltage regulation applications. It features a nominal Zener voltage of 6.2 V with a tolerance of ±5%. The device is rated for a maximum power dissipation of 2 W and utilizes the DO-214AA (SMBG) surface-mount package. It operates within a temperature range of -65°C to +150°C and complies with RoHS standards.

Single Zener Diodes Feature Summary

• Provides stable voltage regulation in a compact surface-mount SMBG package
• Capable of handling high power dissipation up to 2 watts
• Operates reliably across an extended industrial temperature range

Single Zener Diodes Applications

• Voltage regulation circuits
• Overvoltage protection systems
• Clamping applications in electronic equipment

Single Zener Diodes Procurement Notes

Verify the specific part number against official Microsemi documentation to confirm exact electrical parameters and package details. Ensure compliance with current environmental regulations such as RoHS. Check for any product change notifications or end-of-life status updates directly from the manufacturer before procurement.

Single Zener Diodes Selection Notes

Select this component when a 6.2 V reference is required in a surface-mount configuration. Consider the 2 W power rating and ±5% tolerance for circuit design. Verify that the DO-214AA footprint matches the PCB layout requirements and that the operating temperature range suits the intended environment.

Single Zener Diodes Part Context

This component belongs to the SMBG series of Zener diodes from Microsemi, which are plastic-encapsulated devices offering higher thermal performance compared to glass-body options. The series provides extensive voltage selection for various regulation needs in a robust surface-mount format suitable for automated assembly processes.

Single Zener Diodes Replacement Considerations

Consult official Microsemi cross-reference data for verified substitutes. Generic equivalents may differ in thermal resistance or tolerance specifications.