CSTNE14M3V53L000R0

Resonators Overview

The Murata Electronics CSTNE14M3V53L000R0 is a ceramic resonator from the CERALOCK series, designed for surface-mount applications. It operates at a nominal frequency of 14.3 MHz with an initial tolerance of ±0.5%. The device features a load capacitance of 15 pF and supports operating supply voltages of 6 VDC and 15 VAC. It is housed in a compact 3.2 mm x 1.3 mm package with a height of 0.9 mm. The component functions within a temperature range of -40°C to +85°C.

Resonators Feature Summary

• Utilizes CERALOCK technology for stable oscillation performance
• Designed for surface-mount device (SMD) integration
• Supports dual voltage operation including AC and DC sources

Resonators Applications

• Microcontroller clock circuits
• Communication interface timing
• Embedded system synchronization

Resonators Procurement Notes

Verify the specific suffix and manufacturer part number against official Murata documentation to ensure correct frequency and tolerance specifications. Confirm that the required load capacitance matches the target circuit design parameters before procurement. Check for RoHS compliance status if environmental regulations apply to the final assembly.

Resonators Selection Notes

Select this component when a precise 14.3 MHz reference is required for SMD layouts. Ensure the application environment remains within the specified -40°C to +85°C operational range. Verify that the 15 pF load capacitance aligns with the oscillator circuit requirements to maintain frequency accuracy.

Resonators Part Context

This part belongs to the Murata CERALOCK family of ceramic resonators, which are engineered as cost-effective alternatives to quartz crystals. The series provides reliable frequency stability for consumer electronics and industrial control systems where moderate precision is sufficient.

Resonators Replacement Considerations

Consult official Murata substitution guides for compatible frequencies. Generic replacements may differ in load capacitance or temperature stability characteristics.