445C22H24M00000

Crystals

Crystals are ubiquitous in the modern world, used in a variety of applications in almost every area of electronics. In this article, we will explore the application field and working principle of 445C22H24M00000 crystal, an extremely common type of crystal used in electronics.

What Is A Crystal?

A crystal is a type of solid material with a highly ordered structure. It is composed of atoms that are arranged in a regular, three-dimensional pattern, forming a lattice structure. Depending upon the type of crystal, it can interact with an incoming signal in an interesting way.

Application Field

The 445C22H24M00000 is a highly stable and accurate crystal used in frequency control and precision timing applications. It is relatively small in size and manufactured in a hermetically packaged enclosure. It runs on a single 5V DC supply and can be used in a variety of applications ranging from alarm systems to frequency synthesizers.

The 445C22H24M00000 is popularly used in precision timing applications such as quartz clocks, oscillators, temperature controllers and voltage regulators. It is also popularly used in telecommunications and radio systems like clock generation, data transmission and reception.

Working Principle

The 445C22H24M00000 crystal operates by using the piezoelectric effect, in which a quartz crystal vibrates when exposed to an electric current. The crystal acts as an oscillator, producing an electrical signal of a precise frequency. This signal is then converted into the desired output frequency.

The frequency of the crystal can be adjusted through changes in capacitance or inductance, allowing for frequency stability over temperature and time. Its temperature stability is around ±15ppm/°C and its frequency is typically 3.2MHz.

Conclusion

The 445C22H24M00000 is a common and reliable crystal used in many precision timing and frequency control applications. It is inexpensive, highly stable and accurate, and is used in a wide range of applications, from alarm systems to clock generation. By using the piezoelectric effect, it produces a precise, frequency-stabilized electric signal.