416F36012ASR

Crystals form the basis of most modern electrical systems. Products from various manufacturers, such as the 416F36012ASR, are used in a variety of applications in the industry. In this article, we will discuss the application field of the 416F36012ASR crystal and its working principle.

Application Field of 416F36012ASR

The 416F36012ASR crystal is used in a variety of applications, including high-performance digital systems, cellular telephones, and digital television receivers. Its small size and low power consumption make it an ideal choice for applications where space and power are limited.

The 416F36012ASR crystal is also well-suited for quartz-based timing applications, such as microprocessors, counters, and timers. It is also suited for special applications such as temperature-compensated crystal oscillators, radio receivers, and frequency synthesizers. Moreover, the 416F36012ASR crystal is also suitable for driving a variety of other electronics and semiconductor devices, including programmable logic, analog multiplexers, and photodetectors.

Working Principle of 416F36012ASR

The 416F36012ASR crystal uses a quartz crystal as its resonator in order to produce a stable frequency. When an alternating electric current is applied to the crystal, it vibrates at a frequency determined by its physical characteristics. The vibration of the crystal is then converted into a frequency output, which is used to time electronic systems.

The basic operation of the 416F36012ASR crystal is relatively simple. The frequency of the alternating electric current is transmitted to the crystal via a pair of electrodes. The crystal then vibrates at its resonant frequency, which is then used to create a stable frequency output. The frequency output can then be used to set the timing of the electronic systems.

The 416F36012ASR crystal is designed to provide highly accurate timing and reliable performance. Its temperature-compensated structure allows it to perform up to ±25 parts-per-million (ppm) stability even when operating at extreme temperatures. In addition, its low power consumption ensures that it can operate for an extended period of time without significantly impacting the performance of the system.

Conclusion

The 416F36012ASR crystal is a versatile, reliable, and accurate crystal oscillator. It is suitable for a variety of applications, ranging from high-performance digital systems to radio receivers and frequency synthesizers. Its small size and low power consumption make it an ideal choice for applications where space and power are limited. In addition, its temperature-compensated characteristics and low power consumption ensure that it can perform up to ±25 ppm stability even when operating at extreme temperatures.