AX7DAF2-2000.0000T

Oscillators are common components that can be found in a large variety of electronic devices and applications, ranging from radio and television to audio processing and telecommunications.

The AX7DAF2-2000.0000T is a type of oscillator that employs a quartz crystal resonator as its main operating mechanism. It is typically used in timing and frequency control applications where high precision and stability are required over a wide temperature range.

The crystal resonator itself consists of a small quartz crystal that vibrates or oscillates at a nominal frequency. A capacitive transducer is typically used to sense the mechanical vibration. The transducer then converts the mechanical vibration into an electrical voltage signal. This electrical signal is then amplified to form an output.

The quartz crystal resonator is extremely stable and will often be selected based on its frequency characteristics, specifically the load capacitance, drive level, frequency tolerance and tolerance temperature coefficient. In addition, it is very shock resistant and can withstand a wide range of environmental conditions, such as temperatures and humidity.

The AX7DAF2-2000.0000T oscillator is best suited for use in precision and timing applications such as those found in radio control, measuring instruments, medical and aerospace equipment as well as embedded systems. It can offer excellent levels of accuracy over temperature with an operating temperature range of -20°C to +70°C and stability of ±20ppm over constant temperatures.

The AX7DAF2-2000.0000T oscillator also provides several benefits in terms of power consumption, since it can operate at extremely low levels due to its small onboard circuitry. This helps to reduce overall system power requirements and helps to extend battery life in battery powered applications.

Overall, the AX7DAF2-2000.0000T oscillator is a reliable and accurate timing solution for a wide variety of precision and timing applications. It is capable of providing excellent levels of accuracy and stability over temperature without the need for additional components or circuitry.