XLH525075.000000I

XLH525075.000000I Oscillators

The XLH525075.000000I refers to an oscillator module designed to provide various timing and amplifying characters for measurements or applications. These oscillators provide outstanding phase noise performance and constant frequency output.

Application Field

The application field includes such fields as military radio communication, avionics, satellite communication and navigation systems, base stations, wireless communications, and other fields involving demanding frequency stability requirements. In particular, they are specifically designed to be compatible with existing standards such as the Frequency Stability Standardization (FSS) and Military Standardization requirements.

Working Principle

The XLH525075.000000I oscillators use a quartz crystal to construct an oscillating circuit that maintains the accuracy of the reference frequency over time and temperature. The core of this circuit consists of a quartz crystal connected between two input terminals. By applying proper input signals to the quartz crystal, an oscillation or resonance is established and precise reference frequency is generated. By changing the input signal levels, or by changing the capacitive loading on the quartz resonator, the output frequency can be manipulated.

The oscillator circuit is inherently designed to minimize frequency drift and long term aging by employing various techniques such as reading pre-determined temperature compensation capacitance values, using dual-slope frequency control, and utilizing false signal detection techniques.

The oscillator circuit also has built-in frequency programming capability to ensure reliable and accurate frequency generation.

Conclusion

The XLH525075.000000I oscillator is a highly reliable and stable device that is designed to meet the frequency stability requirements of many applications, including those developed for military, avionics and communications. It features an extremely low phase noise performance which is critical in many applications, and can be readily programmed to provide an accurate and reliable frequency reference without sacrificing accuracy or stability.