AT-3.6864MAGE-T

Crystals Overview

The AT-3.6864MAGE-T is a surface-mount quartz crystal unit manufactured by TXC Corporation, designed for precise frequency generation in electronic circuits. It operates at a nominal frequency of 3.6864 MHz with a load capacitance of 12 pF. The component offers a frequency tolerance of ±30 ppm and a stability of ±50 ppm. It utilizes fundamental resonance mode and supports standard drive levels typical for crystal oscillators.

Crystals Feature Summary

• Surface mount package design for automated assembly
• Fundamental resonance operation mode
• Standard quartz crystal construction

Crystals Applications

• Microcontroller clock sources
• Communication interface timing
• General-purpose digital circuitry

Crystals Procurement Notes

Verify the specific datasheet version for the AT-3.6864MAGE-T to confirm current RoHS compliance status and detailed electrical specifications. Ensure that the application circuit matches the required load capacitance of 12 pF for accurate frequency performance. Confirm availability through authorized distributors as supply conditions may vary.

Crystals Selection Notes

Select this component when a 3.6864 MHz surface-mount crystal with 12 pF load capacitance is required. Consider the ±30 ppm tolerance and ±50 ppm stability limits against system timing requirements. Compare physical dimensions and mounting style against PCB layout constraints relative to other available crystal packages.

Crystals Part Context

This part belongs to the TXC Corporation family of surface-mount quartz crystals. It shares common manufacturing processes with other MEMS and crystal oscillator products from the same manufacturer, providing standardized reliability metrics for industrial and commercial applications requiring stable frequency references.

Crystals Replacement Considerations

Direct substitutes must match the 3.6864 MHz frequency, 12 pF load capacitance, and surface-mount form factor. Verify equivalent tolerance and stability ratings to ensure circuit compatibility without redesigning the load capacitors.