CX2016DB32000D0WZRC1

Crystals

Crystals are commonly used in electronic and other technology, due to their versatile properties. One type of crystal that is used in a variety of applications is the CX2016DB32000D0WZRC1. This crystal operates by a combination of physical and electrical principles, and its various uses depend on the application field.

Application field

CX2016DB32000D0WZRC1 crystals are most commonly used in oscillators. An oscillator is a type of electrical circuit that produces a signal at a particular frequency, which is determined by the crystal’s resonance frequency. This signal is useful in a variety of applications, including as a clock signal in computer systems, as an excitation signal in contactless card readers and as a local oscillator signal in radio transmitter circuits. In addition, these crystals can be used as filters in switching applications or in audio and video circuits.

CX2016DB32000D0WZRC1 crystals are also used in vibration meters, where they provide a stable time base for mechanical vibration measurements. These crystals offer a number of advantages such as high frequency stability, low operating temperature range and good economical cost. Thus, this crystal is suitable for a wide range of applications, from industrial measuring equipment to consumer electronics.

Working principle

The operation of a CX2016DB32000D0WZRC1 crystal is based on the physical principle of resonance. When an alternating voltage is applied to the crystal, it vibrates at its natural frequency, which according to the specific model and design of the crystal is determined to be 32 kHz. This vibration sets up standing waves in the crystal. These standing waves are used to generate a signal with a constant frequency, which can be used to generate a clock signal, used as a local oscillator in radio transmitters, and so on.

The crystal has a number of internal electrodes, one of which is the main control electrode. This is connected to a voltage source and is used to control the frequency of the crystal. A second electrode is connected to an amplifier, and is used to provide feedback to the crystal, to ensure that the frequency remains constant. The final two electrodes are used for mounting the crystal to the circuit. This provides the electrical connections needed for the crystal to function.

In addition to the physical principles, the entire operation of the crystal depends on certain electrical principles as well. In order for the crystal to oscillate at its determined frequency, the voltage applied to the main control electrode must be changed in exact relation to the current passing through the crystal. This is known as the "charge-regulation" principle, and is used to keep the frequency of the crystal stable over a large temperature range.

The CX2016DB32000D0WZRC1 crystal can be used in many different applications, depending on the use of oscillators and filters. Its wide range of operating temperature and frequency stability make it a suitable choice for many industrial and consumer applications. The combination of physical and electrical principles makes this crystal a versatile and efficient element for a variety of electronic devices.