FC2BAEBDI40.0-T1

Crystals Overview

The FC2BAEBDI40.0-T1 is a 40 MHz fundamental mode crystal oscillator from Fox Electronics, designed for surface mount applications. It features a frequency stability of ±20 ppm and a load capacitance of 8 pF. The component operates within a temperature range of -40°C to +125°C and meets AEC-Q200 automotive qualification standards. Its physical dimensions are 5.0 mm x 3.2 mm with a maximum height of 1.0 mm, housed in a 4-SMD, no-lead package.

Crystals Feature Summary

• Automotive-grade reliability certified under AEC-Q200 standards
• High-frequency stability of ±20 ppm for precise timing
• Compact 5.0mm x 3.2mm surface-mount footprint

Crystals Applications

• Automotive electronic control units (ECUs)
• On-board communication systems
• Infotainment and navigation modules

Crystals Procurement Notes

Verify the specific suffix 'T1' corresponds to the tape-and-reel packaging configuration required for automated assembly processes. Confirm that the ±20 ppm stability rating aligns with the system's clock tolerance requirements. Ensure the 8 pF load capacitance matches the circuit design specifications to maintain accurate frequency performance.

Crystals Selection Notes

Select this component when an automotive-qualified crystal with high frequency stability is required for space-constrained designs. The 40 MHz output suits microcontroller clock inputs or communication interfaces. Consider the wide operating temperature range for harsh environmental conditions typical in vehicle interiors.

Crystals Part Context

This part belongs to the C2BA series of ultra-small, thin, and high-performance crystals from Fox Electronics. It is engineered for demanding automotive environments, offering superior thermal stability and resistance to mechanical shock compared to standard commercial-grade components.

Crystals Replacement Considerations

Compatible substitutes include FC2BAEBEI40.0-T1 and FC3BAEBDI40.0-T1, provided their respective load capacitances and stability ratings meet the original design constraints.