SX3M6.176A10F20TNN

Oscillators Overview

The SX3M6.176A10F20TNN is a CMOS crystal oscillator manufactured by Shenzhen SCTF Electronics. It operates at a fundamental frequency of 6.176 MHz and utilizes a standard CMOS output interface. The device is designed for operation with a supply voltage of 5V and features an enable/disable control function. It is housed in a compact 4-SMD, no-lead surface-mount package, suitable for automated assembly processes.

Oscillators Feature Summary

• Provides a stable 6.176 MHz clock signal via a standard CMOS output interface.
• Features integrated enable and disable functionality for power management.

Oscillators Applications

• General-purpose digital circuit timing
• Embedded system clock generation
• Consumer electronics timing references

Oscillators Procurement Notes

Verify the specific suffix 'A10' against official datasheets to confirm pinout and tolerance specifications. Ensure the 5V supply requirement aligns with target circuit design. Confirm the 4-SMD footprint matches PCB layout constraints. Request manufacturer documentation for electrical characteristics prior to integration.

Oscillators Selection Notes

Select this component when a 6.176 MHz reference is required with CMOS logic compatibility. Consider the 5V operating voltage and enable pin availability. Evaluate the 4-SMD package size against spatial limitations. Compare performance against alternative oscillators if lower voltage or different frequencies are needed.

Oscillators Part Context

This oscillator belongs to the series of surface-mount timing devices produced by Shenzhen SCTF Electronics. These components are engineered to provide reliable clock signals for various electronic applications. The product line focuses on standard form factors compatible with modern SMT manufacturing techniques.

Oscillators Replacement Considerations

The model SX3M6.176D10F20TNN is identified as a related variant within the same series. Verify functional equivalence regarding voltage levels and output types before substitution. Cross-reference pin assignments to ensure mechanical compatibility.