FC4STECKF16.0

Crystals Overview

The FC4STECKF16.0 is a through-hole quartz crystal manufactured by Fox Electronics, designed for precise frequency generation in electronic circuits. It operates at a nominal frequency of 16 MHz and features a load capacitance of 16 pF. The component utilizes a standard two-pin axial leaded package configuration suitable for general-purpose applications requiring stable clock signals.

Crystals Feature Summary

• Provides stable oscillation at a fixed 16 MHz frequency
• Designed with a 16 pF load capacitance specification
• Utilizes a through-hole axial leaded package format

Crystals Applications

• Microcontroller clock sources
• General-purpose timing circuits
• Embedded system oscillator modules

Crystals Procurement Notes

Verify the specific suffix designation against official Fox Electronics documentation to ensure exact electrical compatibility. Confirm that the 16 pF load capacitance matches the target circuit design requirements before procurement. Cross-reference the manufacturer part number to avoid confusion with similar series variants.

Crystals Selection Notes

Select this component when a 16 MHz fundamental frequency is required for through-hole assembly. Ensure the application circuit supports a 16 pF load capacitance to maintain frequency accuracy. Consider the axial leaded form factor for compatibility with existing PCB layouts and manual or wave soldering processes.

Crystals Part Context

This part belongs to the FC4ST series of quartz crystals from Fox Electronics, established in 1979. The series focuses on providing reliable frequency control solutions using high-quality quartz materials. The FC4STECKF16.0 represents a specific variant within this lineup tailored for standard industrial and commercial electronics.

Crystals Replacement Considerations

Consult official substitution lists for equivalent 16 MHz through-hole crystals. Verify that any alternative maintains identical 16 pF load capacitance and frequency tolerance specifications to ensure circuit stability.