LP111F23IDT

The Crystals: LP111F23IDT Application Field and Working Principle

Crystals are an important component of a wide range of electronic systems. They provide a highly stable and reliable frequency reference for circuits. To date, the LP111F23IDT crystal is the most popular choice for applications that require an accurate frequency reference. It features an impressive frequency accuracy and frequency stability over a wide range of temperatures.

Application Field

The LP111F23IDT crystal is used in a broad range of applications. It is well suited for use in communications and industrial equipment, such as mobile phones, base stations, and smart meters. It can also be used in consumer products, including audio/video equipment, medical devices, and automotive electronics. Its wide frequency range allows it to be used in applications that require frequencies from 5 MHz to 250 MHz.

Working Principle

The LP111F23IDT crystal works using the piezoelectric effect, which is the phenomenon whereby applying a voltage to a crystal causes mechanical deformation, resulting in the release of energy in the form of a sound wave at a specific frequency. The crystal is placed between two electrodes, usually in the form of a quartz plate, and a voltage is applied. As the voltage oscillates, the crystal flexes in response, sending out a sound wave at its resonant frequency. This frequency will be determined by the crystal’s physical structure.

The LP111F23IDT has a wide range of frequencies and is stable over a wide temperature range, making it ideal for applications that require a reliable frequency reference. It is also cost effective, as it can be manufactured using standard process technologies, making it suitable for mass-production applications.

Conclusion

In conclusion, the LP111F23IDT crystal is a popular choice for applications that need a reliable frequency reference. It features an impressive frequency accuracy and frequency stability over a wide range of temperatures. It can be used in a broad range of applications, including communications and industrial equipment, consumer products, and automotive electronics. Finally, it works using the piezoelectric effect, whereby a voltage is applied to the crystal, resulting in vibrational energy output at a specific frequency.