402F240XXCLT

Crystals are known for their ability to accurately convert frequency. It is this ability that makes them suitable for use in oscillators, filters, signal generators and other applications. The 402F240XXCLT model crystal is an example of a type of crystal that is commonly used for joining two oscillators together to form part of a frequency synthesizer. The principle of operation of the crystal is based on piezoelectricity, where an electric field is able to make a crystalline structure change its shape upon the application of a direct current.

When a crystal is cut into a specific shape, known as the AT-cut, it is able to oscillate at a certain frequency when a voltage is applied. In practice, the crystal is connected to an input and output circuit, as well as an oscillator. The oscillator circuit is used to drive the crystal at its natural frequency. When an incoming signal is applied to the input, the crystal is driven at its resonance frequency, and this causes the output to reflect the incoming signal. The oscillator maintains the crystal at the correct resonance frequency to ensure that a clean output signal is provided.

The 402F240XXCLT crystal is suitable for use in a range of applications, including short-range wide-band radio transceivers, home entertainment systems, surveillance systems and medical equipment. In these applications, the crystal ensures that signals are accurately converted, minimizing interference and ensuring that the output signal is reliable. In addition, the crystal is able to provide stable data transmission and reception with minimal power consumption.

The 402F240XXCLT crystal is an example of a type of piezoelectric crystal that is widely used today. Its reliable performance and low power consumption make it an ideal choice for a variety of applications, ranging from radio transceivers to medical monitoring equipment. It is also suitable for use in frequency synthesizers, where two oscillators are joined together and driven at the correct frequency using the crystal.