416F36023CTT

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Crystals

Crystals are defined as solid materials composed of atoms, molecules and ions, arranged in an ordered pattern and held together in a condensed three-dimensional lattice. Crystal devices, such as quartz crystals, are utilized in an array of applications, among which a special one is the 416F36023CTT. To understand in greater detail the manner in which these crystals are used, the following will provide an overview of the application field and working principle of the 416F36023CTT.

Application Field

Crystal devices such as the 416F36023CTT are utilized in a variety of applications, most commonly as a part of frequency or timing control circuits that provide oscillator or clock signals. Following are a few typical applications:

• Communication - Radio broadcast, Amateur radio, Radar, communication receivers and transmitters.
• Navigation - Sonar, Compass, Autopilot, Inertial navigation.
• Broadcast Equipment - FM receivers, TV receivers, Video games, Color TV.
• Medical Instruments - Medical diagnostic equipment, Pulmonary therapy equipment, Heart Monitors.

The 416F36023CTT crystal is also widely used in aerospace and missile guidance, clocks and watches, security devices, measuring instruments, and timing devices.

Working Principle

Quartz crystals are characterized by the piezoelectric effect, where an electric field produces a mechanical strain, and a mechanical strain produces an electric field. As a part of a resonant electric circuit, a 416F36023CTT crystal can be used to control or determine the frequency of an oscillator or a clock signal. This is accomplished by placing an appropriate electric field across the crystal to cause it to vibrate at its desired frequency.

In an oscillator or clock circuit, the 416F36023CTT crystal is placed between two electrodes, in which an alternating current provides a driving force for the crystal to vibrate in a standing wave. The vibrations of the crystal, determined by its internal resistance and capacitance, are inverse to the current traveling through it. Therefore, the frequency of vibration of the crystal is determined by the current applied across the electrodes.

Cystal devices such as the 416F36023CTT find extensive use in an array of applications, and serve the purpose of providing frequency or timing control circuits. As a piezoelectric device, the crystal is able to vibrate in a standing wave in response to an alternating current and, in doing so, determine the frequency of an oscillator or clock signal.

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