CX2520DB32000D0GEJCC

Crystals are widely used in many applications due to their ability to generate and detect high frequencies. The CX2520DB32000D0GEJCC crystal is a popular choice of crystal, used in a variety of electronic devices and equipment. This article will look at the application field and working principle of the CX2520DB32000D0GEJCC crystal.

Application fields of CX2520DB32000D0GEJCC

The CX2520DB32000D0GEJCC crystal is used primarily in radio communication devices. It is a high frequency crystal, meaning it can generate and detect frequencies up to 32GHz. As such, it is commonly used in Bluetooth, Near-Field Communication (NFC), Wi-Fi, and other similar radio frequency devices. This crystal is also used in some 5G network equipment.

The CX2520DB32000D0GEJCC crystal is an excellent choice for high frequency applications, as it requires very little power to operate. It also has low phase noise performance and is highly stable. Additionally, the crystal can withstand harsh environments, making it suitable for use in industrial, military, and aerospace applications.

Working principle of CX2520DB32000D0GEJCC

At the most basic level, crystals can be thought of as electric circuits where the current flow is limited by the capacitance of the capacitor and the inductance of the inductor. This is what creates the oscillating signals within the crystal. The CX2520DB32000D0GEJCC crystal is no different in this respect, except that it operates at much higher frequencies than other crystals.

At its core, the CX2520DB32000D0GEJCC crystal works by taking in electrical energy and converting it into mechanical energy, which is then released as an oscillating signal. This signal can then be picked up by an antenna or other sensing device for further processing. This is the same principle at work in any crystal, but the CX2520DB32000D0GEJCC crystal is able to operate at much higher frequencies due to its special design.

The crystal is made up of two quartz plates which are sandwiched together with electrodes placed between them. When a voltage is applied to the electrodes, it causes the quartz plates to vibrate, creating an electromechanical coupling effect. The voltage then travels through the lattices in the quartz, causing the crystal to produce an oscillating signal.

By adjusting the frequency of the applied voltage, the frequency of the signal produced by the CX2520DB32000D0GEJCC crystal can be controlled. This makes it highly versatile and allows it to be used in many different applications.

Conclusion

The CX2520DB32000D0GEJCC crystal is a high frequency crystal and is used primarily in radio communication devices. It is highly stable and requires very little power to operate, making it ideal for industrial, military, and aerospace applications. The crystal works by taking in electrical energy and converting it into mechanical energy, which is then released as an oscillating signal. By adjusting the frequency of the signal, it can be used in a variety of applications.