SIT1602BC-12-30N-18.432000G

Oscillators

Oscillators are electrical components that convert direct current (DC) into alternating current (AC) with a set frequency. They usually generate a sine wave but can generate several other types of waveforms depending on the datasheet. Oscillators are typically used as clock signals in digital electronic circuits, or to drive noise-canceling headphones, and various other electronic devices.

SIT1602BC-12-30N-18.432000G

The SIT1602BC-12-30N-18.432000G is an oscillator designed for applications that require high stability. It features a frequency stability of ±20PPM over the –40°C to +85°C temperature range. This oscillator also has excellent phase noise performance and low power consumption. The SIT1602BC-12-30N-18.432000G is best suited for applications such as clock synchronization or timing devices and can also be used as an RF local oscillator.

Application Field

The SIT1602BC-12-30N-18.432000G is suitable in a wide range of applications, such as clock synchronization or timing devices, communication systems, navigation systems, instrumentation, and industrial automation. It can also be used as a RF local oscillator in communication systems.

Working Principle

The SIT1602BC-12-30N-18.432000G produces an alternating current waveform that is steered towards one of two evenly divided cycles. This waveform is then applied to a timing element, such as a quartz crystal, which in turn produces the required frequency to the circuit. This oscillator also has a low jitter operation, meaning it is able to generate signals with minimal variation in the timing of successive waveforms.

Conclusion

The SIT1602BC-12-30N-18.432000G is an oscillator designed for applications that require high stability. It has a frequency stability of ±20PPM over the –40°C to +85°C temperature range, excellent phase noise performance, and low power consumption. The SIT1602BC-12-30N-18.432000G can be used in a variety of applications such as clock synchronization or timing devices, communication systems, navigation systems, instrumentation, and industrial automation. It works by producing an alternating current waveform that is steered towards one of two evenly divided cycles, which is then applied to a timing element such as a quartz crystal.