SIT8208AC-GF-28E-16.000000X

Oscillators play a key role in determining the accuracy of electronic systems, and their timing performance is critical in many applications. The SIT8208AC-GF-28E-16.000000X is a low-frequency crystal-controlled oscillator designed for precision timing applications. It is characterized by low power consumption, high precision, and small size.

The SIT8208AC-GF-28E-16.000000X oscillator’s primary application field is precision timing and measurement systems, including telecommunications, instrumentation, and aerospace. The oscillator’s small size is beneficial for applications where electrical space is limited, such as portable and mobile systems, where power dissipation is minimized to enhance battery life. These oscillators are also well-suited for applications that require low noise levels and pressure-resistant container attachments.

The working principle of the SIT8208AC-GF-28E-16.000000X oscillator is based on the resonance of the crystal. The crystal is sandwiched between structure components, which often include two metal plates, a base plate and a lid. The applied potential causes the crystal to vibrate at its fundamental frequency. The frequency of the produced oscillations depends not only on the crystal resonance frequency, but also on production tolerances and temperature variations. The signal produced by the crystal is then amplified to the required level by an amplifier circuit before providing the output.

The SIT8208AC-GF-28E-16.000000X oscillator uses a standard crystal in a temperature-stabilized package to detect any frequency shifts due to differences in temperature. This prevents the crystal frequency from changing significantly over wide temperature ranges, thereby maintaining the oscillator’s precision accuracy. The oscillator also incorporates internal temperature compensation, which further increases the stability of the output signal.

In summary, the SIT8208AC-GF-28E-16.000000X oscillator is a versatile, reliable, low-power-consuming precision timing device. Its primary application field is precision timing and measurement systems, including telecommunications, instrumentation, and aerospace. It utilizes a standard crystal in a temperature-stabilized package, and incorporates temperature compensation to maintain precise accuracy even when external temperatures fluctuate. The working principle involves the vibration of the crystal at its fundamental frequency, which is then amplified to the required level for output.