416F260XXATT

416F260XXATT Application Field and Working Principle

The 416F260XXATT is a frequency controlling integrated crystal oscillator (FCIOC) device. It is usually used for clock and timekeeping functions in many applications that require high accuracy and stability, such as digital servo systems and avionics. In addition, it is also widely used as a reference clock for system clock synchronization in digital systems.

The Structure of 416F260XXATT

The 416F260XXATT comprises of a hermetically sealed crystal resonator along with an electrical circuit that can generate a voltage controlled oscillator circuit (VCO) output frequency. The resonator is supplied using a quartz crystal, which determines the oscillation frequency, while the VCO output is determined by an adjustable voltage. This design means that the output frequencies can be adjusted without having to change the components, or the need to replace the crystal.

Application Field of 416F260XXATT

The 416F260XXATT FCIOC is primarily used for clock generation, timekeeping, and synchronization in servo motor systems, avionics systems and general digital clock applications. The device can be used to both generate and control a clock frequency output based on its adjustable voltage. Additionally, many digital communication equipment make use of the device for clock synchronization, such as binary and bus arbitration.

Working Principle of 416F260XXATT

The 416F260XXATT FCIOC consists of crystal resonator and an adjustable voltage generator circuit. When the supply voltage is applied, the resonator oscillates the voltage in the form of an AC wave, and this is then fed to the VCO circuit, thus generating the output frequency. The frequency generated can be adjusted by changing the supply voltage.

An advantage of the 416F260XXATT is its relatively small size and its ability to operate in low voltage environments. Furthermore, the low power consumption of the device makes it suitable for battery-powered applications. The device also features high accuracy and stability, making it suitable for precision timekeeping.