416F26022ITR

Crystals - 416F26022ITR Application Field and Working Principle

Crystals are important components of many electrical devices and components, including the 416F26022ITR. This crystal combines the features of a temperature-controlled oscillator, a full-size crystal, and a temperature sensor into one package. Let us take a look at the application fields and working principles of the 416F26022ITR.

Application Fields of 416F26022ITR

The 416F26022ITR is a highly accurate temperature controlled oscillator intended for use in critical time and frequency reference applications. It is mainly used in applications where long-term stability and jitter performance is essential, such as in time synchronization networks, frequency and time reference points in communications networks, server reference clocks, and network equipment. Its temperature span performance ensures that even in extreme temperature environments, such as high-temperature industrial applications, high temperature shock testing, or other high temperature operating conditions, it provides superior and reliable stability over various temperatures.

Working Principle of 416F26022ITR

The 416F26022ITR crystal oscillator consists of an oscillator and a temperature sensor. The oscillator is a quartz crystal resonator, which generates a frequency signal when voltage is applied to it. The crystal oscillator is mounted inside a package that has a built-in temperature sensor, which senses the ambient temperature. The temperature sensor converts the temperature into a voltage and the voltage is fed back to the oscillator. This voltage will change the amplitude, phase and frequency of the signal generated by the oscillator, thus allowing the oscillator to adapt to different temperature changes. This process maintains the stability of the crystal oscillator and ensures that it maintains a very high degree of precision.

The 416F26022ITR crystal is designed to be used in harsh temperature environments, which means that it can maintain its stability over a wider temperature range than regular crystal oscillators. The temperature sensor provides a feedback signal to the oscillator, thus allowing the oscillator to track the temperature changes and protect the crystal oscillator from temperature jumps without affecting the accuracy.

The 416F26022ITR crystal oscillator can also be used in applications requiring a high level of stability, such as time synchronization, frequency reference points, and for general time measurement. It is capable of maintaining its accuracy over long periods of time, and also has very low jitter and phase noise performance.

Conclusion

The 416F26022ITR crystal is a highly accurate temperature controlled oscillator capable of providing reliable time and frequency reference points for critical applications. It can maintain its accuracy over a wide temperature range, allowing it to be used in harsh temperature environments. The 416F26022ITR also has very low jitter and phase noise performance, allowing it to be used in applications requiring a high level of stability.