ASTMK-4.096KHZ-MP-D26-H-T

Oscillators

An oscillator is an electronic circuit that produces a regular, periodic electronic signal without being connected to an external source of energy. Types of oscillators include amplitude-modulated oscillators (AMOs), frequency modulation (FM) oscillators, phase-locked loops (PLLs), voltage-controlled oscillators (VCOs), current-controlled oscillators (CCOs), pulse width modulation (PWM) oscillators, and so on. The ASTMK-4.096KHZ-MP-D26-H-T oscillator is a frequency-stabilized oscillator that operates using pulse counting and regulating techniques.

Application Field

ASTMK-4.096KHZ-MP-D26-H-T oscillators are used in a wide variety of applications. It is commonly used in telecommunications systems, such as landline phones, cellular phones, and internet modems. It is also used in computers, industrial automation, digital signal encoding and decoding, frequency synthesis, and radio receivers and transmitters. Additionally, if an application requires a stable clock signal, ASTMK-4.096KHZ-MP-D26-H-T oscillators may be used.

Working Principle

The ASTMK-4.096KHZ-MP-D26-H-T oscillator works on the principle of pulse count regulation and frequency stabilization. The oscillator is driven by a quartz crystal, which creates a signal with a particular frequency, typically 4.096KHZ. The signal is then compared to an internally generated reference frequency. If the frequency of the signal is different from the reference frequency, the oscillator regulates the pulse count accordingly to stabilize the frequency. The oscillator then uses a number of filters to filter out any unwanted signals. This results in a highly precise and stable signal.

Conclusion

The ASTMK-4.096KHZ-MP-D26-H-T oscillator is a type of oscillator that is used in a wide variety of applications. It produces a highly precise and stable signal by using pulse count regulation and frequency stabilization techniques. The oscillator is driven by a quartz crystal, which creates a signal with a frequency of 4.096KHZ. The signal is then compared to an internally generated reference frequency and the pulse count is then regulated accordingly to ensure accuracy and stability.