Q 32,0-JXS22-12-10/10-FU-WA-LF

Crystals

Q 32,0-JXS22-12-10/10-FU-WA-LF is a kind of crystals. It is widely applied in many fields, such as radio and navigation systems, communication systems, navigation, automotive electronics, medical electronics, radar systems, and many more. Besides, it can be used in various industries, in order to meet the increasingly intense requirements of modern electronic equipment for high frequency oscillating components, for example, for electronic tracking, automatic control and other high frequency switching technologies. This kind of crystal has the advantages of small size, high crystallinity, low cost, and wide adaptability.

Crystals are generally used for clock and frequency control in electronic system circuitry. Their primary function is to provide a consistent, reliable source of electric current for regulating the operation of electronic equipment. So how does it work? In general, when electrical current is applied to a crystal, its atoms are arranged in a patterned lattice structure, causing them to vibrate or "resonate" in a specific frequency. The frequency of the crystal oscillates at a rate determined by its physical properties-temperature and pressure, for example.

Every crystal has a unique frequency that can be used in radio, navigation and communication systems, as well as other electrical systems. The main application of this kind of crystal is in tuned oscillator circuits, which use it to provide an accurately tuned electric frequency. The stable oscillation frequency is frequently based on the piezoelectric effect and can be used to form a reliable oscillator. In order to maintain the frequency, the crystal is usually connected to a positive feedback circuit.

The process of frequency selection is quite simple. A resistor-capacitor (RC) circuit containing a crystal is connected to a DC voltage source. When a voltage is applied to the crystal, the crystal begins to oscillate at its resonance frequency, because of the piezoelectric effect. This frequency is determined by the physical properties of the crystal, such as its size, temperature, and behaviour in response to electrical forces.

Crystals are an important component in communication and navigation systems, as they are used to establish accurate communication between distant sources. As they provide the best possible transmission of signals, they are an integral part of wireless and satellite communication networks. In addition, they are used to control clock systems, generate and stabilize electronic signals, and test electronic equipment. With the increasing demand for new electronic systems, smaller and more efficient crystals are being developed, further increasing the range of applications and capabilities in which they can be used.