SX3M25.600B10F20TNN

Oscillators Overview

The SX3M25.600B10F20TNN is a standard CMOS crystal oscillator manufactured by Shenzhen SCTF Electronics, operating at a nominal frequency of 25.6 MHz. It features a supply voltage range of 1.62V to 3.63V with a maximum supply current of 10mA. The device offers frequency stability of ±30ppm and operates within a temperature range of -40°C to 85°C. It includes an enable/disable function and is housed in a compact 4-SMD, no-lead package.

Oscillators Feature Summary

• CMOS output signal generation for digital logic interfacing
• Integrated enable and disable control functionality
• Wide operating voltage compatibility from 1.62V to 3.63V
• Industrial temperature range operation capability

Oscillators Applications

• Embedded system clock sources
• Microcontroller timing references
• Digital communication interface synchronization
• Consumer electronics timing circuits

Oscillators Procurement Notes

Verify the specific ordering suffix against official datasheets to confirm pinout and electrical characteristics. Ensure the selected variant matches the required frequency tolerance and load capacitance specifications for the target application circuit design.

Oscillators Selection Notes

Select this component when a standard CMOS output oscillator is required for low-power digital applications. Consider the 4-SMD package size for space-constrained PCB layouts. Verify that the ±30ppm stability meets the system timing requirements under varying temperature conditions.

Oscillators Part Context

This part belongs to the SCTF active crystal oscillator family, designed for providing stable clock signals in electronic systems. The SX3 series typically offers various frequency options and package types to support diverse embedded design needs across industrial and consumer markets.

Oscillators Replacement Considerations

Direct substitutes may include other 25.6MHz CMOS oscillators with similar pinouts and voltage ranges. Verify functional compatibility before replacement to ensure signal integrity and power consumption alignment.