CSTNE14M0V530000R0

Resonators Overview

The Murata Electronics CSTNE14M0V530000R0 is a ceramic resonator operating at a nominal frequency of 14.00 MHz with a frequency stability of ±0.5%. It features a surface-mount (SMD/SMT) package measuring 3.2 mm in length, 1.3 mm in width, and 0.9 mm in height. The component supports a load capacitance of 15 pF and functions within an operating temperature range of -40°C to +85°C.

Resonators Feature Summary

• Utilizes CERALOCK technology for stable oscillation
• Designed for compact surface-mount integration
• Provides reliable timing signals in microcontroller circuits

Resonators Applications

• Microcontroller clock sources
• General-purpose timing applications
• Consumer electronics control boards

Resonators Procurement Notes

Verify the specific suffix 'R0' against official Murata documentation to confirm reel packaging specifications. Ensure the load capacitance requirement matches the target circuit design before procurement. Cross-reference the RoHS compliance status directly with the manufacturer's current datasheet to guarantee regulatory adherence for the intended market.

Resonators Selection Notes

Select this component when a 14 MHz timing source with ±0.5% accuracy is required. The 15 pF load capacitance specification must align with the host system's oscillator circuit parameters. Consider the 3.2 x 1.3 mm footprint constraints and the -40°C to +85°C operational range during the initial hardware layout phase.

Resonators Part Context

This part belongs to the CSTNE series of ceramic resonators from Murata Electronics. These components are designed as cost-effective alternatives to quartz crystals, offering integrated capacitors within the package to simplify circuit design. The series targets applications requiring moderate frequency stability in a small form factor.

Resonators Replacement Considerations

Consult official Murata substitution guides for verified equivalents. Generic cross-references may not match the precise 15 pF load capacitance or 0.5% stability requirements.