Q 13,56-JXS32-9-10/15-T1-WA-LF

Due to market price fluctuations, if you need to purchase or consult the price. You can contact us or emial to us:   sales@allicdata.com

Crystals

A crystal is a naturally occurring solid material made up of a three-dimensional array of atoms or ions arranged in a definite pattern repeat in all three physical dimensions. Depending on the material, a crystal may have an obvious crystalline structure or an atomic lattice structure. Although the term “crystal” can refer to any material with an ordered atomic structure, it is usually used to refer to materials in which the atoms are arranged in a lattice pattern.

Q 13,56-JXS32-9-10/15-T1-WA-LF application field and working principle

Q 13,56-JXS32-9-10/15-T1-WA-LF is the most advanced type of crystal oscillator available on the market. The application field of this type of crystal includes telecommunications, satellite radio and television broadcasting, location based services, navigation, and other aerospace applications. The working principle of this type of crystal is to convert a signal’s frequency into a crystal’s frequency, which remains constant over time and also accurately. This type of crystal oscillator is composed of a quartz crystal and an electronic circuit. The quartz crystal, which forms the core of the oscillator, is cut and shaped into a specific shape, size, and frequency and is then encapsulated into a quartz crystal assembly. The electronic circuit is used to connect the quartz crystal assembly to electrodes, so that an electric current can run through the crystal and vibrate, creating an oscillation.

The exact frequency of each crystal is determined by its geometry, specifically the width and length of two parallel plates that are inserted into the quartz crystal. The frequency of the crystal can be further tuned by applying heat to the quartz, which is normally done for telecommunications applications. The oscillations produced by the quartz crystal, when exposed to an electric current, create an alternating current signal.

The signal produced is then subject to a number of tests such as applying a steady-state parameter, current sweeps, pressure sweeps, and vibration. This allows the oscillator to be tuned and calibrated as required, ensuring that the output signal is as accurate and efficient as possible. By using this type of crystal technology, engineers can guarantee reliable and accurate signal processing, thus ensuring that any type of communication is secure and efficient.

The specific data is subject to PDF, and the above content is for reference