9C-7.680MAAE-T

Crystals are essential components for many kinds of electronic devices. They can be used to stabilize the frequencies and enhance the accuracy of modern electronic devices, as well as to control the resonant frequency in the system.

The 9C-7.680MAAE-T is a crystal that is often used in areas such as peripheral circuits, precision testing and measuring, telecommunications, sound-processing, broadcast and recording. It has the features of a low noise floor, a wide dynamic frequency range, a wide operating temperature range, and a low operating temperature.

The 9C-7.680MAAE-T is also capable of providing a clean, accurate and consistent output signal even when the environmental conditions vary. Its wide tuning range, which is up to 8.5 kHz to 10.0 kHz, makes it possible to adapt to different application requirements.

In terms of its working principle, the 9C-7.680MAAE-T crystal oscillator works by converting electrical energy into mechanical vibration. Inside the crystal canter, there is a quartz plate, which is cut into a special shape and placed on a piezoelectric substrate.

When a voltage is applied to the quartz plate, it will start to vibrate at its resonance frequency, which is determined by its size and shape. The vibrating energy is then transferred to the oscillating circuit and the circuit will sustain the oscillation, generating a sustained and stable sine wave output.

The stability of the crystal oscillator is essential for applications that need accurate and consistent output signals. The 9C-7.680MAAE-T crystal oscillator is highly stable, with .DELTA.f ranging from -10 to 30 ppm, making it ideal for applications that require high accuracy and consistency.

In conclusion, the 9C-7.680MAAE-T is a crystal oscillator with a very wide frequency range and a low noise floor that is often used in different applications such as peripheral circuits, precision testing and measuring, telecommunications, sound-processing, broadcast and recording. Its working principle is based on the conversion of electrical energy into mechanical vibration, and its stability makes it ideal for applications that require high accuracy and consistency.