416F40023ALT

416F40023ALT Application Field and Working Principle

The 416F40023ALT generated by Newark Element14 is a highly optimized, monolithic temperature-stabilized crystal oscillator with a nominal frequency of 40.000 MHz (accuracy of, +/-20 ppm). This device is mainly used for time base applications, such as for communication, frequency generation, and for other various kinds of digital accuracy applications.

This crystal oscillator is designed to provide maximum performance, low power consumption, and a wide temperature range of -20 to +70°C. It is able to work with a supply voltage ranging from 1.8 to 5.0 Volts and an operating frequency range of 10 to 200 MHz. This crystal oscillator features a loading capacitance of 18 to 43 pF and it has an impressive shock resistance of 150G at 11ms duration.

Moreover, the 416F40023ALT crystal oscillator provides excellent thermal stability and a high output load, allowing it to maintain high frequency accuracy over a wide temperature range. It also has low phase noise resulting from its optimized internal frequency generation and very low drift due to its precision tuning.

This crystal oscillator works on the principle that, when a specially cut quartz crystal is placed inside an electronic oscillator circuit, the crystal will vibrate at a certain frequency based on the size and shape of the quartz. This vibration generates a frequency identical to the crystal’s resonance frequency, which is the frequency of the electromagnetic field set up by the crystal. This oscillation frequency is then used in various electronic systems and devices, as part of their timing and control processes.

The 416F40023ALT crystal oscillator is also highly reliable and versatile, due to its optimized frequency generation and temperature-stabilized design. Furthermore, it is designed to operate even in harsh conditions, providing a very high level of quality and reliability over a wide range of temperatures. Overall, the 416F40023ALT crystal oscillator is an excellent choice for various kinds of time-based and digital applications.