416F50025CDR

Crystals

Crystals are used in many different industrial and consumer applications. One particular type of crystal, the 416F50025CDR, is a specialized part used for frequency stability, noise reduction, and other signal stability-related applications. The 416F50025CDR has a long history of being used in a variety of industries, including communication, aviation, and industrial control. In this article, we will look at the application field and working principle of the 416F50025CDR and discuss the reasons why it is an attractive option for certain applications.

Application Field of the 416F50025CDR

The 416F50025CDR is primarily used in communication applications due to its exceptional frequency stability characteristics. It is capable of withstanding noise and disruption from adjacent frequencies and maintaining a stable signal output. This makes it an ideal choice for applications such as wireless communication, broadband transmission, base stations, and TV frequency stability. The crystal has also found considerable use in the aviation industry, with its wide range of frequency stability characteristics allowing for accurate navigation, detection, and communication.

The crystal’s frequency stability, accuracy, and low-noise characteristics make it suitable for other applications as well. These include but are not limited to: timing instruments, industrial and medical equipment, military equipment, and automotive electronic parts. In addition, the crystal is capable of operating at much higher temperatures than other crystals, making it an attractive option for applications where heat tolerance is a requirement.

Working Principle of the 416F50025CDR

The 416F50025CDR takes advantage of the piezoelectric effect to generate its stable frequency output. The principle behind this effect is that certain materials, such as quartz, respond to an applied electric field with a mechanical vibration at a particular frequency. This frequency is determined by the physical dimensions of the crystal, such as its thickness and diameter.

To produce an oscillating signal, an AC voltage is applied to the crystal. This voltage causes the crystal to expand and contract in response, creating an oscillating mechanical vibration within the crystal that produces an oscillating electrical current. The frequency of the current is determined by the physical dimensions of the crystal. This crystal oscillator output can then be used in various application circuits, such as timers, frequency generators, DC-DC converters, and more.

Conclusion

The 416F50025CDR is a versatile crystal used in a wide range of applications. Its frequency stability, accuracy, and low-noise characteristics make it suitable for use in communication, aviation, industrial, and automotive electronic parts. It takes advantage of the piezoelectric effect to generate its oscillation, making it an attractive option for applications where the highest levels of accuracy and low-noise operation are demanded.