C-F-10.78125M-6-1515-2070-50

Crystals Overview

The CEC Xtal C-F-10.78125M-6-1515-2070-50 is a passive surface-mount crystal resonator designed for precision timing applications. It operates at a nominal frequency of 10.78125 MHz with a load capacitance of 6 pF. The component utilizes a compact 4-SMD, no lead package configuration, specifically the 1515 metric footprint (1.5 mm x 1.5 mm). This design supports low-profile integration into space-constrained electronic assemblies while maintaining stable oscillation characteristics required for digital signal processing and communication systems.

Crystals Feature Summary

• Passive crystal resonator technology
• Surface-mount SMD package configuration
• Compact 1.5 mm x 1.5 mm footprint

Crystals Applications

• Digital signal processing circuits
• Communication system timing references
• Microcontroller clock sources

Crystals Procurement Notes

Verify the specific operating temperature range and frequency stability tolerance against the official manufacturer datasheet before procurement. Ensure that the PCB layout accommodates the 1515 SMD footprint dimensions accurately to guarantee proper solder joint formation and mechanical reliability during reflow processes.

Crystals Selection Notes

Select this component when a precise 10.78125 MHz reference is required in ultra-compact designs. Confirm compatibility with the target circuit's load capacitance requirements and verify that the package height constraints are met within the final assembly envelope.

Crystals Part Context

This part belongs to the CEC Xtal family of frequency control devices, which includes various crystal resonators and oscillators. The series provides standardized solutions for timing needs across consumer electronics and industrial equipment, emphasizing reliable performance in small form factors.

Crystals Replacement Considerations

Direct substitutes must match the 10.78125 MHz frequency, 6 pF load capacitance, and 1515 SMD package dimensions. Verify equivalent electrical parameters such as ESR and drive level sensitivity to ensure seamless integration without circuit redesign.