CSM1Z-A0B2C3-200-3.579545D18

CSM1Z-A0B2C3-200-3.579545D18 Application Field and Working Principle

Crystals, due to their inherent properties, play an important role in almost all electronic circuits. Their elegant and reliable design allows them to oscillate at a particular frequency with extraordinary accuracy, making them invaluable building blocks in modern electronic circuits. CSM1Z-A0B2C3-200-3.579545D18 is a type of crystal and it is widely used in different fields.

Application Fields

CSM1Z-A0B2C3-200-3.579545D18 is often used in oscillators and clocks in communication devices. As this product can provide a precise frequency and consistent timing, it helps these electrical devices to operate properly. Other than communication devices, it can also be used in consumer electronics, medical instruments and automobiles, because frequency and timing are crucial for the device’s performance.

Working Principle

The working principle of CSM1Z-A0B2C3-200-3.579545D18 can be understood by its composition. The letters CSM1Z stands for the piezoelectric material of the product. A0B2C3 stands for the holder and its mechanical details. The 200 indicates the diameter of the crystal in tenths of millimeters and 3.579545 is the resonant frequency in MHz. Finally, the last letter D18 stands for the temperature range of the product.

The main principle of CSM1Z-A0B2C3-200-3.579545D18 is the Piezoelectric Effect. When the piezoelectric material is subject to mechanical stress, it produces an electrical charge. Conversely, when an electric field is applied to the material, it induces mechanical displacement. In the case of CSM1Z-A0B2C3-200-3.579545D18, the electric field causes the material to oscillate at a specific frequency. This frequency is determined by the mechanical characteristics of the piezoelectric material and can be used as the oscillation frequency by external circuits.

Conclusion

The CSM1Z-A0B2C3-200-3.579545D18 crystal is an important building block of modern electronics because of its unique properties. It can be used in numerous fields, such as communication devices, medical instruments, and automobiles. Its working principle is based on the Piezoelectric Effect, where an electric field is applied to the material to cause it to oscillate at a specific frequency.