7V27000002

Crystals Overview

The 7V27000002 is a surface-mount ceramic crystal manufactured by TXC Corporation. It operates at a nominal frequency of 27 MHz with a load capacitance of 8 pF. The component is housed in a 3.2 mm x 2.5 mm package and supports an operating temperature range from -20°C to +70°C. This device functions as a fundamental resonator for timing applications.

Crystals Feature Summary

• Surface-mount ceramic construction for compact integration
• Designed for stable frequency generation at 27 MHz
• Operates within standard commercial temperature limits

Crystals Applications

• Consumer electronics timing circuits
• Communication module reference clocks
• General-purpose digital system oscillators

Crystals Procurement Notes

Verify the specific package dimensions and load capacitance requirements against the target circuit design before ordering. Confirm that the -20°C to +70°C operating range aligns with the environmental conditions of the intended application. Ensure compatibility with standard reflow soldering profiles for surface-mount assembly processes.

Crystals Selection Notes

Select this component when a cost-effective, miniature ceramic resonator is required for 27 MHz applications. Consider the 8 pF load capacitance requirement for proper oscillator circuit tuning. Evaluate the thermal performance against the specific operational environment constraints to ensure reliability during continuous use.

Crystals Part Context

This part belongs to the TXC 7V series of ultra-miniature ceramic crystals. The series focuses on providing thin profiles and low series resistance for modern portable devices. These components are designed to replace larger through-hole alternatives while maintaining high Q factors and low phase noise characteristics suitable for consumer-grade electronics.

Crystals Replacement Considerations

Cross-reference with other 27 MHz SMD ceramic crystals from manufacturers such as NDK or ECS. Verify equivalent package sizes (3.2x2.5mm) and load capacitance values to ensure direct functional substitution without circuit redesign.