416F38035ADT

416F38035ADT Application Field and Working Principle

Crystals are components of electrical systems in many electronic devices. Such crystals serve as the accurate time reference for synchronization and control systems. The count rate of pulses generated by these crystals is in the 0.1 Hz to 100 MHz range. The application field of these crystals and their working principle are explained in this article.

Overview

Crystals are tiny quartz crystals in the form of thin bars or slivers. These crystals are usually held in thin metal plates or thin frames. The metal plates store electrical energy and act as capacitors. When current passes through the crystal, it produces a vibration, which generates electric breaks.

416F38035ADT

The 416F38035ADT application field of the crystals covers transportation equipment, communications, printing, instrumentation, medical equipment, aerospace, industrial and consumer electronics. 416F38035ADT crystal type is an advanced and reliable timing device for high-precision control systems. It is a high-performance, high-precision crystal oscillator and serves as the core of the timing system.

The 416F38035ADT crystal uses two electro-mechanical vibrators. Each vibrator has its own capacitor and inductor. These two vibrators form the heart of the 416F38035ADT oscillator. The voltage generated by the two vibrators induces a resonance in the crystal. This resonance then initiates a charge at the crystal\'s terminals.

Working Principle

The working principle of the 416F38035ADT crystal oscillator is based on the vibrational influence of an electrical current on a crystal. This electric current results from an AC voltage applied to the crystal. The frequency of the current defines the resonant frequency of the crystal.

The resonant frequency of the crystal is determined by the oscillation characteristics of its oscillators. When the frequency of applied voltage matches the resonant frequency of the crystal, the electric current flowing through the crystal will induce the vibration, leading to the oscillating motion of the crystal.

The crystal vibrations cause an electrical charge, which is then sent back to the oscillator. This alternating current produces an alternating voltage, which is then sent to the output of the oscillator. This alternating voltage serves as the output of the system.

Conclusion

The 416F38035ADT crystal oscillator is a high-performance and high-precision timing device used in many electrical systems. Its working principle is based on the vibrational influence of electric current applied to a crystal, leading to the oscillating motion of the crystal. This oscillating motion is then used to generate an alternating voltage, which is sent to the output of the system.