9B-24.576MAAJ-B

Crystals Overview

The FTS 9B-24.576MAAJ-B is an HC49 through-hole quartz crystal resonator operating at a fundamental frequency of 24.576 MHz. It features a frequency stability of ±30 ppm and a load capacitance of 18 pF. The component supports an operating temperature range from -20°C to +70°C. This standard timing element is designed for integration into electronic circuits requiring precise clock signals.

Crystals Feature Summary

• HC49 package construction for reliable surface mounting
• Fundamental mode operation at 24.576 MHz
• Stable frequency performance within ±30 ppm tolerance

Crystals Applications

• Microcontroller clock sources
• Communication interface timing
• General-purpose digital circuit synchronization

Crystals Procurement Notes

Verify the manufacturer designation, as this part number is frequently associated with TXC Corporation in official datasheets. Confirm that the HC49 package dimensions and pin configuration match your PCB footprint requirements. Ensure the 18 pF load capacitance aligns with your oscillator circuit design specifications before procurement.

Crystals Selection Notes

Select this component when a fundamental mode quartz crystal is required for 24.576 MHz applications. The HC49 package offers robust mechanical stability compared to smaller surface-mount alternatives. Consider the ±30 ppm stability requirement against your system's timing accuracy needs and verify the -20°C to +70°C temperature range covers your operational environment.

Crystals Part Context

This crystal belongs to the family of standard HC49 through-hole resonators commonly used in consumer electronics and industrial control systems. These components provide a cost-effective solution for generating stable clock signals in microprocessor-based designs where high precision is not critical.

Crystals Replacement Considerations

The TXC 9B-24.576MAAJ-B is a confirmed equivalent part number with identical electrical specifications and physical dimensions. Verify compatibility with existing assembly processes when substituting.