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Oscillators

Oscillators are useful components when it comes to generating electrical waves of a desired frequency. They are used extensively in radio communications, navigation systems, and home appliances. We will discuss one type of oscillator that has a specific application in the field - the 353SB3C100T Oscillator and its working principle.

353SB3C100T Application Field

The 353SB3C100T oscillator is an innovative oscillator developed by Ai- Semitek. It is a low-power, integrated quartz resonator that has been designed to operate in a range of temperature and voltage conditions. This oscillator is perfectly suited for high-discharge rate applications where a long life and high reliability are required. Some common applications include low-voltage alarm systems, Wi-Fi routers, medical equipment, multi-output voice diction systems, and mobile TV receivers.

353SB3C100T Working Principle

The working principle of the 353SB3C100T oscillator is based around the quartz crystal inside the oscillator. The quartz resonator consists of two quartz plates which are held together under precise tension. When an alternating voltage is applied to the quartz plates, they vibrate at a precise frequency which is determined by the design of the quartz resonator. The frequency of the quartz resonator is adjustable by varying the tension on the quartz plates.

The quartz resonator produces an output signal which is then amplified and filtered by an amplifier and a band-pass filter. The amplified signal is then directed to a power stage, which drives an output transducer. The output transducer is the device which generates the output signal of the oscillator. This output signal is tuned by adjusting the frequency of the quartz resonator.

Conclusion

In conclusion, the 353SB3C100T oscillator is a highly reliable and versatile oscillator designed for use in high-discharge rate applications. It utilizes a quartz resonator to generate an output signal of a precise frequency, which is adjusted by applying the correct amount of tension on the quartz plates. This output signal is then amplified and filtered by an amplifier and band-pass filter before being directed to an output transducer, which is the device which generates the final output signal.

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