SX3M32.000D20F30TNN

Oscillators Overview

The SX3M32.000D20F30TNN is a 32 MHz CMOS crystal oscillator manufactured by Shenzhen SCTF Electronics. It operates within a supply voltage range of 1.62V to 3.63V and features an enable/disable control pin. The component utilizes a 4-SMD, No Lead package and supports operation across a temperature range of -40°C to +85°C. Frequency tolerance is specified at ±20ppm with stability at ±30ppm.

Oscillators Feature Summary

• CMOS output signal generation
• Enable/Disable control functionality
• Wide operating temperature range

Oscillators Applications

• General purpose clock signal generation
• Embedded system timing references
• Consumer electronics devices

Oscillators Procurement Notes

Verify the specific ordering suffix against official datasheets to ensure correct frequency and package configuration. Confirm supply voltage requirements match the target circuit design. Check for updated revision levels or alternative lead-free variants if required by compliance standards. Cross-reference part numbers with authorized distributors to avoid counterfeit components.

Oscillators Selection Notes

Select this oscillator when a standard CMOS output is required for digital logic interfaces. Ensure the 1.62V to 3.63V supply range aligns with the system power rails. Consider the 4-SMD package size for PCB layout constraints. Verify that the ±20ppm tolerance meets the timing accuracy requirements of the connected microcontroller or processor.

Oscillators Part Context

This component belongs to the SCTF series of surface-mount crystal oscillators. These devices are designed to provide stable clock signals for various electronic applications. The series typically offers options for different frequencies, packages, and electrical specifications to suit diverse design needs.

Oscillators Replacement Considerations

Consult official substitution lists from Shenzhen SCTF Electronics for direct replacements. Verify compatibility regarding pinout, voltage, and frequency before swapping. Generic equivalents may not guarantee identical performance characteristics.