416F36025IDR

416F36025IDR Application Field and Working Principle

The 416F36025IDR is a crystal oscillator used for a variety of electronic applications, such as microcontroller systems, frequency synthesis, and embedded designs. This crystal oscillator has an operating frequency of 25MHz and features a comprehensive package of features to improve reliability, accuracy and output waveforms. It is suitable for both low and high frequency designs, making it an excellent choice for a wide range of applications.

Features

The 416F36025IDR crystal oscillator includes a variety of features for better performance and greater reliability. These features include an automatic reset system for ensuring that power-on does not affect frequency stability and accuracy, as well as a reference voltage comparator for monitoring and maintaining consistent output. The crystal oscillator also offers digital control and on-chip temperature compensation to improve stability. Additionally, the oscillator is constructed using low noise process technologies, making it well-suited for situations where noise sensitivity is essential.

Application Field

Due to its wide operating frequency range and reliable performance capabilities, the 416F36025IDR crystal oscillator is suitable for a broad range of applications. Graphics and audio components, products for avionics and communication networks, automotive navigation systems and embedded designs all benefit from this oscillator’s performance. It is often used for microcontroller systems and frequency synthesis, as well as for low-power and low-cost designs.

Working Principle

The 416F36025IDR crystal oscillator functions by using the principle of electrical resonance. When an electrical voltage is applied to a crystal pierced by electrodes, it generates an electromagnetic field. This field causes the crystal to vibrate at its natural frequency, which can be determined by taking a measurement of the crystal’s resonance. This frequency is then used to generate a periodic signal. The oscillator produces an output waveform determined by the crystal used, the amount of energy it consumes, and its physical characteristics. The output of the oscillator is used to drive clocks and provide high-precision timing signals.