XZLEECNANF-30.000000 Crystals, Oscillators, Resonators

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 are one of the most interesting and useful materials in our modern world. While their traditional applications seem to focus on jewelry and decoration, the application field of modern crystals has extended to scientific and electronic studies. The XZLEECNANF-30.000000 is an example of such a crystal, and its application field and the working principle of it will be the discussion of the following article.

The XZLEECNANF-30.000000 is a kind of quartz crystal specifically designed for industrial use. It is a high-performance resonator featuring excellent frequency tracking and stability over a wide temperature range. It is a commonly used piezoelectric crystal for low-end radio communication applications, and its widely used in many other applications such as transistor radios and helical-resonator radios. It could also be used as an oscillator in high-frequency circuits.

In order to understand its application field and working principle, we need to have a basic understanding of the structure of a crystal. Crystals are made up of atoms arranged in an orderly fashion. The atoms are connected by strong bonds and form a lattice-like structure. This lattice structure gives the crystal certain unique properties, such as the ability to vibrate at certain frequencies when supplied with energy.

In the case of the XZLEECNANF-30.000000, the crystalline lattice is piezoelectric, meaning that it produces a small electric charge when subjected to pressure or vibration. This electric charge can then be used to provide a stable and consistent frequency of oscillation. To achieve this oscillation, an electric current is supplied to the crystal through two electrodes, one of which acts as an anode and the other as a cathode, allowing a current to flow through the crystal lattice. As the current flows through the crystal, it creates vibrations which cause the electric charge to oscillate with a consistent frequency. The frequency of this oscillation is determined by the size and shape of the crystal, as well as the type of material used.

The application field of the XZLEECNANF-30.000000 is quite wide. It is used as a frequency-determining part in television and other radio communication systems such as frequency hopping radios, radar systems, and satellite communications. It can also be used as a frequency reference in laboratory setups, as it has a very stable frequency over a wide range of temperatures. Additionally, it is used as an oscillator in tunable oscillator and resonator circuits, and as a time reference in quartz clocks, wrist watches, and other time-keeping devices.

In conclusion, the XZLEECNANF-30.000000 is an example of a high-performance resonator featuring excellent frequency tracking and stability over a wide temperature range. Its application field is quite wide, from radio and television communication systems, to laboratory setups and quartz clocks. Understanding its working principle requires a basic understanding of crystalline structures, as it is piezoelectric and produces a stable electric charge when subjected to pressure or vibration.

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