CS325-20.500MABJ-UT

CS325-20.500MABJ-UT Application Field and Working Principle

Crystals, such as CS325-20.500MABJ-UT, are widely used in electronic circuitry designs for their unique features. It is a class of timekeeping crystals with a high frequency range, and is manufactured using standard SMJ technology. The CS325-20.500MABJ-UT works by vibrating at a certain frequency that it is designed to produce with the help of an oscillator circuit.

These crystals are usually found in many electric circuit designs or radio-frequency communication devices. The CS325-20.500MABJ-UT is especially popular for being highly stable and reliable, with tight tolerance and a broad frequency range. It also has a low rate of aging and is compatible with some of the most popular assembly types such as SMT, through-hole, radial, and axial.

The CS325-20.500MABJ-UT is one of the most popular crystal choices for use in low-noise oscillator circuits. It is well regarded for its low cost and affordability compared to other options in the same category. These types of crystals are used in a variety of receivers, transmitters, and oscillators, and are available with various supply Voltages and package sizes.

The working principle of the CS325-20.500MABJ-UT is based on the piezoelectric effect. This phenomenon occurs when certain crystals are placed in an electric field, whereby they convert electrical energy into mechanical energy. This mechanical energy then moves the crystal, causing it to vibrate at a specific frequency. The oscillating crystal then provides a reference frequency for the oscillator circuit.

The CS325-20.500MABJ-UT is also known for its tolerance to temperature changes and wide temperature range. This makes it one of the most robust and reliable options for oscillator circuits in different ambient conditions. Furthermore, it has exceptional frequency accuracy and stability and low drift over a wide temperature range.

To summarize, the CS325-20.500MABJ-UT is commonly known as a high-frequency crystal with great accuracy, stability, and reliability. Its applications encompass a vast range of electronics systems, ranging from complex integrated circuits, to less complex analog circuits. It works through the piezoelectric effect, wherein the crystal is stimulated by an electric field and vibrates at a certain frequency. Additionally, it is also compatible with various assembly types and is tolerant to varying temperatures. This crystal is one of the most widely used options in terms of its affordability, performance, and durability.