SIT1602BI-22-28E-4.000000D

Oscillators

SIT1602BI-22-28E-4.000000D Application Field and Working Principle

Oscillators are electronic circuits that output a continuous periodic signal. Not only can they act as timekeepers to maintain the timing between different pieces of a device, but they can also be used as frequency references and signal sources to drive more complex blocks. SIT1602BI-22-28E-4.000000D oscillator is a widely used and low-cost low-accuracy frequency reference.

Application Field: SIT1602BI-22-28E-4.000000D oscillator is suitable for use in consumer, industrial and embedded applications including off-shore controls, remote wireless transmitter designs, medical testing, and automotive applications. Additionally, this model of oscillator is approved by recognized standards organizations like RoHS, IPC, UL, and CSA.

Working Principle: SIT1602BI-22-28E-4.000000D is an oven-controlled oscillator (OCXO) that uses a quartz crystal for its frequency base. This crystal is placed in an oven to reach a temperature of ~150° Celsius. At this temperature, the oscillator output frequency is optimized to an accuracy of +/- 0.8 ppm. Inside the oscillator, an AT-cut quartz crystal is connected to an amplifier. The crystal is electrically charged and a stable oscillator signal is output from the amplifier.

SIT1602BI-22-28E-4.000000D achieves its +/- 0.8 ppm accuracy level over a broad temperature range of -30° Celsius to 70° Celsius. This oscillator features exceptional stability and low-noise characteristics when compared to other quartz crystal oscillators. It also exhibits low Spurious noise floor and no random frequency drift making it an ideal choice for precision signal transmission, control, and timing applications.

In conclusion, the SIT1602BI-22-28E-4.000000D oscillator is a low-cost frequency reference that offers an accuracy of +/- 0.8 ppm over a wide temperature range. This oscillator is ideal for applications such as remote wireless transmitter designs, medical testing, and automotive applications. Additionally, its low-noise characteristics and no random frequency drift make it a good choice for precision signal transmission, control, and timing applications.