AX7MCF1-693.4800C

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Oscillators

Oscillators are devices that generate electrical signals of specific frequencies. They are used in a variety of applications, including radios, communications and scientific equipment. The AX7MCF1-693.4800C is a type of “crystal oscillator.” This type of oscillator is highly stable, which makes it well suited for precision instrumentation.

AX7MCF1-693.4800C Application

The AX7MCF1-693.4800C crystal oscillator is designed for use in telecom and radio frequency applications. It is particularly well-suited for long-term applications where stability over time and temperature variations is required. Due to its superior performance characteristics, the AX7MCF1-693.4800C is often used in avionic systems, voice over Internet telephony, microwave and satellite communication systems, and other digital transmission systems.

AX7MCF1-693.4800C Working Principle

As its name implies, the AX7MCF1-693.4800C crystal oscillator is based on a quartz crystal. Quartz is a piezoelectric material, which means that it can generate a charge in response to an applied pressure. When electricity passes through the crystal, it causes the quartz to vibrate at a precise frequency. The frequency is determined by the thickness and size of the quartz crystal. The output of the crystal oscillator is an alternating high- and low-level voltage signal.

The AX7MCF1-693.4800C crystal oscillator uses a Colpitts oscillator circuit. Basically, this oscillator circuit consists of an amplifier, a capacitor and an inductor. The inductor and capacitor are connected together in a feedback loop that maintains the oscillation of the signal. The signal is then amplified by the amplifier and sent to its output.

The main feature that makes the AX7MCF1-693.4800C crystal oscillator so accurate and stable is its temperature compensation. By adding an internal temperature sensor, the circuit is able to compensate for variations in environmental temperature. This ensures that the signal maintains its frequency even over a wide range of temperature variations, making it suitable for precision instrumentation and communication systems.

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