1N5088SM

Single Zener Diodes Overview

The 1N5088SM is a surface-mount Zener diode manufactured by Microchip Technology. It features a nominal Zener voltage of 60 V with a tolerance of ±5%. The device supports a maximum power dissipation of 3 W and has a maximum impedance of 70 Ohms. Reverse leakage current is specified as 1 µA at 45.7 V. The component utilizes an SQ-MELF package for mounting.

Single Zener Diodes Feature Summary

• Surface mount construction in SQ-MELF package
• High power dissipation capability of 3 W
• Precision voltage regulation at 60 V nominal

Single Zener Diodes Applications

• Voltage reference circuits requiring stable 60 V levels
• Overvoltage protection in high-power systems
• Clamping applications in industrial electronics

Single Zener Diodes Procurement Notes

Verify the specific datasheet revision from Microchip Technology to confirm exact electrical tolerances and thermal characteristics. Ensure the SQ-MELF package footprint matches the design layout. Confirm that the 3 W power rating aligns with the intended thermal management strategy in the final assembly.

Single Zener Diodes Selection Notes

Select this component when a robust, high-power Zener diode is required for surface-mount designs. The 60 V rating suits medium-voltage regulation tasks. Consider the 70 Ohm impedance for noise-sensitive applications. The SQ-MELF form factor offers compact integration compared to axial leads.

Single Zener Diodes Part Context

This part belongs to Microchip's discrete semiconductor portfolio, specifically within the Zener diode category. It serves as a voltage regulation and protection element in electronic circuits. The SQ-MELF packaging indicates a leadless surface-mount technology suitable for automated assembly processes.

Single Zener Diodes Replacement Considerations

Cross-reference with other 60 V, 3 W Zener diodes in SQ-MELF packages. Verify pinout compatibility and thermal resistance values before substitution. Ensure equivalent impedance and leakage current specifications are met for critical circuit performance.