405C35D40M00000

Crystals: 405C35D40M00000 Application Field and Working Principle

Crystals are found in a broad number of applications, from clocks and watches, to radiofrequency communication, from sonar systems to video games. These, and similar applications all use crystals to convert an applied electrical signal into a stable frequency. The most common type of crystal used in these applications is the 455C35D40M00000, as it is inexpensive and has good frequency stability.

Crystal Properties

The most important quality of a crystal is its frequency stability. Crystals are formed from a single piece of material, into which oscillations occur at a fixed frequency. By designing the crystal to the right size and shape, it is possible to achieve very good precision frequency stability. This is then maintained through temperature control and external components that are tuned to the crystal’s frequency.

Application Fields

Crystals are used in a wide range of applications. Clocks and watches rely heavily on crystals, as do telecommunications devices. These devices use 455C35D40M00000-type crystals, as they are extremely stable and offer good frequency accuracy. Another application is radios. Radiofrequency signals need to be precisely at their predetermined frequencies to avoid interference and signal loss. Crystals are very effective for this purpose.

Crystals are also used in data processing applications, where a computer needs a precise signal for data transfer, such as for bus systems or for USB connections. This ensures that data is reliably transferred between devices. Crystals are also used in sonar systems, both for navigation and for object detection and tracking. Finally, video games often rely on crystals in their timer circuits, to ensure that all game movements move at the same speed.

Working Principle

The working principle of a crystal is fairly simple. An electrical signal is applied to the crystal, which then begins to vibrate at a fixed frequency. This frequency is determined by the physical properties of the crystal, such as its shape and size. The crystal then produces an output signal that is amplified by an amplifier circuit, and then sent to the device’s output. The frequency stability of the crystal is maintained by temperature control and by tuning external components to the crystal’s frequency.

Conclusion

The 455C35D40M00000 crystal is a popular choice for applications that require precise frequency control, as it is very stable and offers good frequency accuracy. These crystals are used in a broad range of applications, from wristwatches to sonar systems. The working principle of such crystals is based on an electrical signal applied to the crystal, which causes it to vibrate at a fixed frequency. This frequency is maintained by temperature control and tuning external components to its frequency.