636L3C030M00000

636L3C030M00000 Application Field and Working Principle

The 636L3C030M00000 is an oscillator device that has specific application fields and working principle. It is a precision clock signal source and is typically used for critical timing of systems, such as in data link controllers, phase locked loops (PLLs), FPGAs, and microcontrollers. It operates over a wide temperature range with a low-power consumption,stable frequencies, and minimal clock jitter.

Application Fields

The 636L3C030M00000 is designed to provide superior performance in all levels of high speed processors, precision clocks, and communication networks. It is well suited for today’s consumer and industrial electronics, such as data link controllers, routers, switch systems, FPGAs, and embedded control systems. It is also used in medical electronics, test and measurement applications, communication systems, and automotive applications. This oscillator is designed to withstand a wide range of operating temperatures, and can maintain both accurate frequency over extended periods of time, as well as jitter performance over its specified operating temperature.

Working Principle

The 636L3C030M00000 uses a quartz crystal as an active element. A quartz oscillator works by vibration of the crystal when a voltage is applied on two of its opposite faces. When the voltage is applied, the crystal vibrates in the opposite direction at a frequency determined by its physical parameters.The oscillator has a feedback circuit which determines the resonance frequency of the crystal by amplifying the output signal. This signal is then sent back to the crystal so that it vibrates at the target frequency. The output signal is then filtered to remove high-frequency noise and other unwanted monitoring signals. The output of this filtering process is a precise and stable output signal at the desired frequency.

Conclusion

The 636L3C030M00000 is an oscillator device designed for use in a wide range of application fields. Its operating temperature range, low-power consumption, and stable frequencies make it an ideal choice for use in high speed processors, communication networks, and precision clocks. Its working principle is based on the vibration of a quartz crystal when a voltage is applied, which is then amplified and filtered for precise and stable output.