655P156E3C2T

Oscillators are important components for many applications, ranging from low frequency, low power applications all the way up to radios and high-end electronics. The 655P156E3C2T oscillator is a type of quartz oscillator used in various high precision applications, with a frequency range of 10 MHz to 25 MHz. This type of oscillator produces very low phase noise and jitter, making it an ideal choice for applications where signal stability and accuracy are essential.

Application Fields

The 655P156E3C2T oscillator finds application in many varied fields, such as radar and navigation systems, frequency synthesizers, baseband transceivers, microwave systems, remote sensing and communications systems. It is also suitable for applications requiring high stability, accuracy and low jitter such as frequency-hopping applications.

These oscillators are used in audio and video applications, particularly for sampling rates where digital signal output is required. In this case, its low phase noise and jitter suit it particularly well, as it results in improved signal quality. It is also used in medical imaging equipment and other satellite systems where uncompromised signal integrity is essential.

Working Principle

The 655P156E3C2T oscillator is a quartz oscillator that uses a quartz crystal as its resonator. Quartz is known for its high frequency stability and accuracy, and this oscillator is capable of producing very low phase noise and jitter. This makes it ideal for applications that need stable and accurate timing signals.

The quartz crystal oscillator consists of a quartz crystal and a pair of electrodes. An alternating current is run through the electrodes, which causes the quartz oscillator to vibrate. The frequency of the vibration is determined by the dimensions of the quartz crystal. When the frequency of the alternating current is the same as the resonant frequency of the crystal, it creates a stable oscillation.

The 655P156E3C2T oscillator has been designed to deliver very low phase noise and jitter, making it suitable for applications where signal stability and accuracy are essential. It is easy to integrate into systems due to its small size and low power consumption, making it an ideal choice for many high precision applications.