SX3M13.000A10F20TNN

Oscillators Overview

The SX3M13.000A10F20TNN is a standard CMOS crystal oscillator manufactured by Shenzhen SCTF Electronics. It operates at a nominal frequency of 13 MHz and utilizes a 4-SMD, No Lead package. The device supports a supply voltage range of 1.62V to 3.63V and features an enable/disable control function. Frequency stability is specified at ±10 ppm over the operating temperature range, with a load capacitance of 20 pF.

Oscillators Feature Summary

• CMOS output signal generation for digital clock applications
• Integrated enable and disable control functionality
• Ultra-low jitter performance for high-fidelity signal integrity

Oscillators Applications

• Audio and video electronics requiring precise clock synchronization
• IoT devices needing stable frequency references
• Telecommunications equipment utilizing standard XO solutions

Oscillators Procurement Notes

Verify that the specific ordering suffix matches the required frequency tolerance and load capacitance specifications. Confirm the package type corresponds to the target PCB footprint requirements. Ensure the supply voltage range aligns with the system power rails before finalizing procurement orders.

Oscillators Selection Notes

Select this component when a standard CMOS output is required alongside low jitter characteristics. Consider the enable/disable feature if power management during idle states is necessary. Verify compatibility with the target application's voltage levels and thermal environment constraints.

Oscillators Part Context

This model belongs to the SX3M series of crystal oscillators from Shenzhen SCTF Electronics. The series provides frequency control solutions for industrial, telecom, medical, and IoT sectors. It represents a standard XO offering within the manufacturer's portfolio of quartz crystal products.

Oscillators Replacement Considerations

The SX3M13.000B20F30TNN serves as a public confirmed substitute part number. This alternative shares the same 13 MHz frequency and CMOS output but differs in load capacitance and tolerance parameters.