SIT1602BI-82-30N-31.250000T

Oscillators are electronic components that generate periodic electrical signals. The SIT1602BI-82-30N-31.250000T oscillator is one such component.

The SIT1602BI-82-30N-31.250000T oscillator is a fundamental oscillator based on a quartz crystal resonator. It operates with a variety of quartz crystals, such as AT-cut, SC-cut, IT-cut, D-cut, and others. Its operating frequency range is 30 - 2500 MHz, with temperature stability from -30C to +85C. The oscillator supports two voltage levels, a higher level of 4.5 V and a lower level of 0.75 V, with an input frequency of 16 - 30 MHz, providing amplitude stability and low jitter. The SIT1602BI-82-30N-31.250000T oscillator is suitable for use in microwave transmitters, routers, radars, base stations, and other radio frequency (RF) applications that require high frequency stability and low EM radiation.

The working principle of the SIT1602BI-82-30N-31.250000T oscillator is based on the quartz crystal resonator which is a mechanical device that can generate an acceptable frequency under a given displacement or a voltage. The use of quartz crystals allows an oscillator to generate stable signals with minimal variability over temperature and aging. The oscillator is designed to detect the amplitude change in the incoming signal, measure the frequency, and output a voltage proportional to the frequency variation.

The SIT1602BI-82-30N-31.250000T oscillator has a number of advantages over other oscillator types, including low power consumption, wide frequency range, low jitter levels, and low phase error. It is also relatively inexpensive compared to other types of oscillators.

In conclusion, the SIT1602BI-82-30N-31.250000T oscillator is a quartz crystal-based oscillator with a wide frequency range and high temperature stability. It is suitable for use in a variety of RF applications, including microwave transmitters, routers, radars, and base stations. Its working principle is based on the quartz crystal resonator, which uses the vibration of an electrical signal to generate a stable frequency. It also has low power consumption, low jitter levels, and low phase error, making it an attractive option for a variety of RF applications.