416F52022CTR

416F52022CTR Application Field and Working Principle

Crystals are components that vibrate in a very precise frequency when they are subjected to an alternating electric field. For some applications, single crystals are used, while for others, arrays of crystals are used. The 416F52022CTR crystal is an array of 4 16 MHz crystals used in the telecommunications industry. It is specifically designed to provide an output signal over a range of frequencies between 6.25 to 8.25MHz when driven within a frequency range of 5 to 9MHz.

Applications

The 416F52022CTR crystal has a wide range of applications in telecommunications and radio communications. Its ability to generate a large range of output signals makes it suitable for transmitters and receivers of both analog and digital signals. For example, it can be used in mobile phones, satellite receivers, TV receivers and other equipment that requires a broad range of transmitted frequencies.

Working Principle

Crystals are made up of two main components; the crystal body, which is a solid material such as quartz, and the electrodes, which are metal contacts connected to either side of the crystal body. An alternating electric field is applied to the electrodes, which causes the crystal body to vibrate at a specific frequency. The frequency of the output signal is determined by the geometry and construction of the crystal body.

The 416F52022CTR crystal is designed to generate outputs over a range of frequencies, depending on the input frequency. It is made up of four 16MHz crystals that have the same shape and size, but have different internal structures and metal contacts. These differences cause each of the crystals to vibrate at slightly different frequencies, and when they are combined, they can generate signals across a range from 6.25 to 8.25MHz. The exact frequency of the output depends on the input frequency.

Conclusion

The 416F52022CTR crystal is a four-crystal array capable of providing output signals over a range of frequencies. It is mainly used in telecommunications and radio communications, and it is suitable for both analog and digital signals. The crystal works by vibrating at a precise frequency when subjected to an alternating electric field, and the output frequency is determined by the geometry and composition of the crystal.