445A31G16M00000

Crystals

Crystals have a wide range of applications, ranging from their use in jewelry to the construction of electronic devices. In the area of electronics, they are widely used in the form of oscillators, which are devices that produce a periodic electrical signal. A popular oscillator model is the 445A31G16M00000, which is utilized in a variety of applications due to its versatility and versatility.

What is the 445A31G16M00000?

The 445A31G16M00000 is a miniature, temperature-controlled oscillator that provides a reliable and stable frequency oscillation. It is an accurate timing device for both analog and digital applications, with an output frequency of 30MHz and an operational voltage between 3 and 5V. This product is widely used in clocks, wristwatches, and microwave ovens and is available in a variety of packages, from through-hole to surface mount.

Application Fields of the 445A31G16M00000

The 445A31G16M00000 oscillator can be used in virtually any timing application where stability and accuracy is required. In telecommunications, this device is used to generate clocks for ISDN systems, PLLs, ASICs, and other network devices. It is also used in automotive electronics, industrial automation, testing and measuring instruments, and medical and scientific equipment.

Working Principle of the 445A31G16M00000

The 445A31G16M00000 oscillator is an electronic device that has a resonator as its main active device. This resonator can either be a quartz crystal, ceramic resonator, or some other substance whose electrical properties can be adjusted via temperature. When power is applied to the oscillator, it causes a piezoelectric effect within the resonator, resulting in a vibration at a specific frequency. This frequency is then converted into an analog or digital output signal by the oscillator.

Conclusion

The 445A31G16M00000 is an extremely versatile oscillator with a wide range of applications. It offers reliable and accurate performance, making it ideal for timing applications within the telecommunications, industrial automation, and automotive electronics industries. The device’s working principle is based on the vibrational properties of a resonator, which produces an output signal proportional to the resonator’s frequency.