CSX-750FBF25000000T

Oscillators are electronic circuits that generate periodic signals. There are many forms of oscillators, ranging from simple LC and RC circuits to sophisticated digital logic implementations. The most commonly used type of oscillator is the quartz crystal oscillator. The CSX-750FBF25000000T is a low-power crystal oscillator designed for applications where a stable and reliable clock source is required.

Application Field

The CSX-750FBF25000000T oscillator is designed for a wide range of applications, including embedded systems, audio and video equipment, automotive, server, and communication systems. It is suitable for clock-generation and timing applications, and it can be used as a timebase generator or system clock. It is also suitable for applications that require precise synchronization or timing, such as broadcast systems, mobile phones, and medical instruments. The CSX-750FBF25000000T offers high-performance features with low EMI, low phase noise, low power consumption, and high stability.

Working Principle

The CSX-750FBF25000000T oscillator uses a quartz crystal resonator as its timing element. The crystal is energised by an external circuit and vibrates to produce an oscillating electrical signal with a very precise frequency. This frequency is then amplified and distributed to the rest of the circuit. The main components of the oscillator circuit are the resonator, a stabilising capacitor, and an amplifier. The resonator is the heart of the circuit, and it consists of a quartz crystal interleaved between electrodes. The external circuit provides a source of energy, which causes the quartz crystal to vibrate and emit an electrical signal. The stabilising capacitor is necessary to maintain the oscillator’s frequency over time, and the amplifier amplifies the signal from the resonator.

The CSX-750FBF25000000T oscillator features low EMI, low phase noise, low power consumption, and high stability. The oscillator utilizes a miniaturized quartz crystal shaping technology to optimize the torsional stress and reduce the parasitic capacitance, improving the stability and performance of the oscillator. The circuit is designed for low power consumption to reduce energy consumption. The EMI is also minimized to improve system reliability. The oscillator is protected against reverse polarity, overvoltage, and over-temperature.