KC3225K75.0000C10E00

Oscillators require a reliable timing reference signal for system operation. The KC3225K75.0000C10E00 is a high-performance quartz crystal oscillator designed to provide a stable and accurate signal in a wide variety of applications.The KC3225K75.0000C10E00 is a complete oscillator built on a 25.0 mm, 14-pin ceramic flat package. It operates from an 8.0 to 20.0 MHz frequency range and features a low power consumption of 1.5 mAat a 3.3 V supply voltage. It also features a high frequency stability of ±25 ppm (±0.0025%) over a temperature range of 0°C to 70°C.

The key feature of the KC3225K75.0000C10E00 is its ability to generate very accurate timing signals with minimal jitter and low phase noise. This makes it ideal for applications such as microwave radio, clock synchronization, and digital signal processing. It is also capable of providing a wide range of output waveforms including sine waves, triangular waves, and pulse trains. The output voltage level is adjustable from 0.2 Vp to 5.2 Vp. The output can be configured to be either TTL or CMOS compatible.

In addition, the KC3225K75.0000C10E00 includes a temperature compensation control that allows the user to adjust the oscillator\'s frequency over a wide temperature range. This makes the device suitable for use in temperature-sensitive applications such as medical and communications.The operation of the KC3225K75.0000C10E00 is based on the classic quartz crystal oscillator circuit. It consists of an electronic oscillator circuit and a quartz crystal. The oscillator circuit provides an AC input to the quartz crystal, which in turn produces a specific resonance frequency at which it vibrates. This frequency is output as the signal from the oscillator.

The KC3225K75.0000C10E00 provides a reliable reference frequency for timing and synchronization applications. Its low power consumption, high frequency stability, and wide temperature range make it an ideal choice for a variety of applications including microwave radio, clock synchronization, and digital signal processing.