581L260X2CAT

Oscillators are electronic components designed to generate periodic signals, usually sine waves. They are essential components of communication systems, used in wireless networks and satellite communications, as well as medical instrumentation, biomedical monitoring and radar systems. The 581L260X2CAT oscillator is a high-performance, tuned-tank, temperature-compensated crystal oscillator (TCXO). It is used to create accurate, high-frequency sine waves.

The 581L260X2CAT uses a quartz crystal as its frequency-determining element. This crystal is carefully tuned to a specific frequency and housed in a hermetically sealed enclosure. The crystal vibrates at its own natural frequency when a voltage is applied across its two terminals. This creates an oscillating electrical current, which is used in many frequency-dependent applications.

The 581L260X2CAT oscillator has a frequency of 26.00000000 MHz, an operating temperature range of -20°C to +70°C, and excellent aging stability. It is powered by a 5V DC supply, has an output impedance of 30 kΩ, a load of 15 pF, and a Rise/Fall time of 0.8 ms. It is available in industry-standard packages including DIP and SMD. The specially designed enclosure is engineered to reduce the effects of mechanical stresses, enabling the device to perform optimally in any environment.

The 581L260X2CAT features a temperature-compensated hierarchical design. It consists of a high-frequency oscillator, a low-frequency oscillator, and a compensation circuit. The temperature-compensated design helps to maintain an accurate frequency over a wide range of environmental conditions, ensuring exceptional stability and accuracy. It allows the oscillator to accurately adjust to changing environmental conditions, such as temperature, humidity, or shock. Additionally, the compensating circuit helps to reduce the device’s power consumption.

The 581L260X2CAT oscillator is used in frequency-dependent applications, such as communications equipment, medical devices, radar systems, and satellite communications. Its temperature-compensated design ensures consistent accuracy and stability, even in harsh environmental conditions. It is an ideal solution for any application that requires precise, frequency-dependent output.