CSTCR5M60G55-R0

Resonators Overview

The CSTCR5M60G55-R0 is a small-cap chip type ceramic resonator from Murata Electronics' CERALOCK series. It operates at a nominal frequency of 5.45 MHz with a tolerance of ±0.5%. The component features an integrated load capacitance of 39 pF and a maximum impedance of 60 Ohms. Designed for surface mount applications, it measures 4.5 mm in length and 2 mm in width. The device supports a wide operating temperature range from -40°C to +125°C and complies with RoHS standards.

Resonators Feature Summary

• Integrates built-in load capacitors to simplify circuit design
• Offers high frequency stability within a compact SMD package
• Supports extended temperature operation up to +125°C

Resonators Applications

• Microcontroller clock sources
• Real-time clock circuits
• Communication module timing

Resonators Procurement Notes

Verify the specific suffix G55 against the official Murata datasheet to confirm the exact frequency and tolerance specifications. Ensure the ordering part number matches the required load capacitance and impedance parameters. Confirm RoHS compliance status and moisture sensitivity level requirements prior to procurement.

Resonators Selection Notes

Select this component when a cost-effective, space-saving timing solution is required for microcontroller or logic circuits. The integrated capacitor eliminates external components, reducing board space. Verify that the 5.45 MHz frequency aligns with system requirements and that the ±0.5% tolerance meets application accuracy needs.

Resonators Part Context

This part belongs to the CERALOCK CSTCR-G series, which provides small-sized ceramic resonators with built-in capacitors. The series is designed for surface mount technology, offering a compact alternative to traditional crystal oscillators in consumer electronics and industrial control systems.

Resonators Replacement Considerations

Consult the official Murata replacement guide for direct substitutes. Cross-reference frequency, tolerance, and package dimensions before substitution.