CSTNE14M7V53L000R0

Resonators Overview

The CSTNE14M7V53L000R0 is a ceramic resonator from Murata Electronics, designed for surface mount applications. It operates at a nominal frequency of 14.746 MHz with a load capacitance of 15 pF. The device features an initial frequency tolerance of ±0.2% and a maximum temperature coefficient of ±50 ppm over the operating range. It is housed in a compact 3.2 mm x 1.3 mm x 0.9 mm package and supports an operating temperature range from -40°C to +85°C.

Resonators Feature Summary

• Integrates built-in capacitors to simplify circuit design
• Provides high frequency stability with low temperature drift
• Supports automated surface mount assembly processes

Resonators Applications

• Microcontroller clock sources
• Communication module timing circuits
• Consumer electronics control systems

Resonators Procurement Notes

Verify that the specific part number matches the required frequency tolerance and load capacitance for your application. Confirm the operating temperature range aligns with your environmental specifications. Ensure the surface mount footprint dimensions are compatible with your PCB layout constraints before finalizing procurement.

Resonators Selection Notes

Select this component when a cost-effective alternative to quartz crystals is needed for moderate precision applications. Consider the 15 pF load capacitance requirement for oscillator circuit compatibility. Evaluate the ±0.2% initial tolerance against system timing requirements to ensure adequate performance margins.

Resonators Part Context

This component belongs to the CERALOCK series of ceramic resonators manufactured by Murata Electronics. These devices utilize piezoelectric ceramic materials to provide stable frequency generation in a compact form factor suitable for modern electronic assemblies.

Resonators Replacement Considerations

Direct substitutes include other 14.746 MHz ceramic resonators with identical 15 pF load capacitance and similar package dimensions. Verify equivalent frequency tolerance and temperature stability characteristics when evaluating cross-brand alternatives.