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FC7BQCCMC11.592-T1: crystals application field and working principle

Crystals are components used to control the accuracy of signal frequencies and to aid in the transfer of digital signals; for these reasons, these components are ubiquitous in almost all electronics, from communications technology to modern computing. One of the most used and reliable types of crystals is the FC7BQCCMC11.592-T1 crystal from Nel Frequency Control. Since its introduction it has been the go-to crystal for many applications, from embedded systems and industrial communications to automotive and aerospace designs. In this article we will explore the application fields and working principle of the crystal.

Application Fields

The FC7BQCCMC11.592-T1 crystal has proven its robustness and reliability in various application fields such as:

• Communication systems
• Industrial Automation
• Smart energy infrastructure
• Embedded systems
• Aerospace and defense
• Automotive systems
• Networking and storage
• Wearable technology

The crystal is suitable for any application that requires a high-precision timing component. Its wide range of operational frequency and temperature range allow it to be used in fields that require high accuracy and wide frequency variations, such as communication systems, industrial automation, and smart energy infrastructure.

Working Principle

The FC7BQCCMC11.592-T1 crystal operates using a piezoelectric effect. This means that when a voltage is applied across the terminals of the crystal, the crystal will vibrate at its natural resonant frequency which is measured in Hertz (Hz). This vibration is then transferred to the circuit board and used to control the frequency or timing of the system.

The FC7BQCCMC11.592-T1 crystal is designed with a “pull” range of ±50 PPM (-50ppm to +50ppm) which allows it to shift its resonant frequency within this range to accommodate for any changes in environmental temperature. This ensures that the frequency accuracy of the crystal will remain within the specified range, regardless of the external temperature.

In many applications, when a crystal oscillator is coupled with a 32.768 kHz crystal, it can provide an ultra-low power output clock. This can be used in embedded systems, IoT, and automotive applications. The crystal also features a low dielectric heat dissipation capacity, low specified tension and wide temperature range which allows it to be used in extreme operating conditions.

Conclusion

The FC7BQCCMC11.592-T1 crystal is a reliable and versatile component suitable for a wide range of applications. With its wide range of operational frequency, low dielectric heat dissipation capacity and pull range, it is the ideal choice for applications that require high accuracy and wide frequency variation. This makes the crystal ideal for communication systems, industrial automation, embedded systems, automotive and aerospace designs, as well as consumer electronics.

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