SG-710ECK 12.3500MC

Oscillators

Oscillators are electronic devices that generate alternating current (AC) signals over a range of frequencies. They are the primary building blocks of any communication system and play a crucial role in many industries. The SG-710ECK 12.3500MC oscillator is an example of such a device.

Application Field

SG-710ECK 12.3500MC oscillators are used in many different applications such as navigation systems, remote sensing systems, navigation and guidance systems, radar systems, wireless communications systems, test and measurement systems, medical imaging, and many other areas. It is specifically designed for operation at 12.3500MHz but can be used in other frequency bands. It has an excellent phase noise performance and a wide operating temperature range.

Working Principle

The SG-710ECK 12.3500MC oscillator works by generating a high-frequency, sinusoidal waveform, which is then converted to the desired frequency. The oscillator requires an input signal to start the oscillation process and an amplifier to keep it going. The input signal can come from an external source such as a crystal oscillator or a voltage controlled oscillator (VCO). The amplifier then amplifies the signal and sends it back to the crystal or VCO, which then generates the output signal.

The output signal is then split through a divider circuit into two separate signals. One of these signals is the original signal, which is sent to a power amplifier to be amplified, and the other is the feedback signal, which is sent back into the oscillator to ensure that the oscillator continues to generate its signal. The output of the oscillator is then available for use in any number of applications.

Conclusion

The SG-710ECK 12.3500MC oscillator is a highly reliable and cost-effective oscillator used in a variety of applications. It is designed to operate at 12.3500MHz and has excellent phase noise performance and a wide operating temperature range. The oscillator works by generating a sinusoidal waveform and then amplifying it to generate the desired output frequency. The output signal is then split into two signals, one of which is the original signal and the other is the feedback signal, which is sent back into the oscillator to ensure the oscillator continues to generate its signal. The output of the oscillator can then be used in any number of applications.