OWENCLLANF-155.520000

OWENCLLANF-155.520000 Oscillators - Application Field and Working Principle

OwenCLLANF-155.520000 oscillators are electronic frequency-generating components of high performance and wide bandwidth. They are designed for applications in the communication, test and measurement, and autonomous navigation fields. This article outlines the application field and working principles of OwenCLLANF-155.520000 oscillators.

Application Field

OwenCLLANF-155.520000 oscillators find various applications in the communication, test and measurement, and autonomous navigation fields.

The communications applications of OwenCLLANF-155.520000 oscillators include high-definition broadcasting and satellite communication systems. The oscillators are used to generate signals for receivers, transmitters, modulators, and other communication equipment. They can also be used for systems that require precise frequency control, such as timing synchronization systems and mobile communication systems.

OwenCLLANF-155.520000 oscillators are largely used in the test and measurement field. Test and measurement equipment often require precise frequency control and sampling. These oscillators provide an exact solution for this purpose.

OwenCLLANF-155.520000 oscillators can be used in autonomous navigation systems. Autonomous navigation systems are used in autonomous vehicles for precise navigation and trajectory guidance. These oscillators can provide constant stable signals for systems like antennas and sensors to ensure accurate navigation.

Working Principle

OwenCLLANF-155.520000 oscillators use a PLL-based frequency control method to generate a stable clock signal. Their low noise, high inertia, and wide frequency ranges make them suitable for precision applications.

A PLL is a closed-loop servo control system. It is composed of an oscillator, a phase detector, a filter, and an amplifier. The oscillator is made up of LC or RC elements and generates a sinusoidal electrical signal. The phase detector measures the reference signal frequency and phase and generates a control signal. The filter eliminates the low-frequency noise of the control signal and the amplifier amplifies the control signal. The output of the oscillator is then fed back into the phase detector.

The combination of the oscillator and phase detector forms a PLL. The loop filter and the amplifier adjust the overall system and complete the frequency control. The output frequency of the oscillator is defined by the PLL. The frequency can be precisely controlled by adjusting the parameters of the PLL.

OwenCLLANF-155.520000 oscillators are equipped with a phase-locked loop control circuit. This circuit accurately controls the output frequency of the oscillator to produce a clock signal within an accuracy range of plus or minus 1.520000ppm.

Conclusion

The OwenCLLANF-155.520000 oscillators are ideal for precise frequency control in communication, test and measurement, and autonomous navigation fields. The PLL-based frequency control method enables the oscillators to generate a precise and stable signal. With a frequency accuracy range of plus or minus 1.520000ppm and low noise performance, the OwenCLLANF-155.520000 oscillators are the perfect choice for precision applications.