AT-28.63636MAHE-T

Due to market price fluctuations, if you need to purchase or consult the price. You can contact us or emial to us:   sales@allicdata.com

Crystals are often used in the electronics industry to produce accurate timing mechanisms and various other applications, resulting in precise operations. Most crystals are made of quartz, although other materials such as strontium titanate or lithium Niobate are also used. The AT-28.63636MAHE-T represents a breakthrough in the field of crystals. This article will discuss the application fields of the AT-28.63636MAHE-T and its working principle.

AT-28.63636MAHE-T crystals are widely used in many medical and aerospace applications, due to their precise and reliable frequency control. They are also used for precise frequency control in X-ray machines, echo machines, nuclear tomography systems, electron microscopes, and other applications requiring precise frequency stability and control. Many modern technologies such as remote sensing, ultrasonic pulse time transfer, wireless power transfer, radar, and communication systems all rely on precise frequency control systems and AT-28.63636MAHE-T crystals are one of the most popular choices. In addition, the AT-28.63636MAHE-T is also used in magnetic recording equipment and DVD video players.

The AT-28.63636MAHE-T crystal is an advanced crystal oscillator with a significantly higher frequency stability than standard quartz crystals. It is designed to provide precise frequency control with low jitter and low phase noise while operating at temperatures up to 125°C. It has a low start-up time of 1-2ms and can maintain frequency accuracy even at temperatures of up to 200°C.

The AT-28.63636MAHE-T working principle is based on the piezoelectric effect of quartz. When a voltage is applied to the crystal, the quartz material vibrates at the natural frequency determined by the frequency of the applied voltage. The crystal is cut and shaped to vibrate at 28.63636MHz, and its frequency stability is provided by the precise cutting and shaping of the crystal. The AT-28.63636MAHE-T can maintain its precise frequency even at temperatures up to 200°C, while regular quartz crystals typically tend to drift in frequency as the temperature rises.

The AT-28.63636MAHE-T has been designed to provide reliable frequency control in medical, aerospace, and other electronic applications requiring precise frequency stability. It is capable of providing precise frequency control with low jitter and phase noise even at temperatures up to 200°C, making it ideal for high-temperature applications. Its low start-up time of 1-2ms and its ability to remain frequency-stable make it ideal for many applications, especially those where precise frequency control is required.

The specific data is subject to PDF, and the above content is for reference