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Crystals: ECS-260-10-36Q-JEN-TR Application Field and Working Principle

Crystals are aggregate structures composed of either organic or inorganic materials, possessing a highly ordered and regular atomic arrangement. These particles are often in the form of a lattice structure and are used in various technologies, including electronics, defense, aerospace, and optics. Crystals have a variety of desirable properties, including high thermal and electrical conductivity, low temperature coexistance, and low mirror hysteresis loss.

The ECS-260-10-36Q-JEN-TR base or "capacitive" crystal is an emergently used type of crystal with a study of stable and reliable performance characteristics. The crystal is based on an LIE or "leaky integrated" design, and is mainly used for frequency-setting, particularly in the consumer electronics industry. While typical range crystals are limited by their design and operational frequency, the ECS-260-10-36Q-JEN-TR crystal has the ability to operate at frequencies up to 10MHz.

The operating frequency of the ECS-260-10-36Q-JEN-TR crystal is dependant on the capacitor circuit which it forms, known as the oscillator. An oscillator is an electronic circuit that produces periodic electrical signals, and its frequency is determined by the relationships between components and their surrounding environment. This combination of components then resonates a specific frequency to the surrounding environment. This frequency sets the timing of the oscillator, and the output from this device is referred to as a clock signal.

The ECS-260-10-36Q-JEN-TR crystal is made up of two capacitors, which are then connected electrically in parallel, connected to each side of the crystal itself. The crystal itself acts as a semiconductor, and its conductive property is influenced by its lattice structure. This lattice structure allows electrical signals to propagate through it, with the speed of propagation dependant on the mechanical stress that is applied to the crystal. This mechanical stress is known as a "strain". A strain applied in a particular direction by applying an attractive force on the crystal can alter the frequency of the clock signal produced.

When an input voltage is applied to the crystal, it will cause a strain which then acts on the lattice structure and alters the electrical conductivity of the crystal. Specifically, the electrons within the atomic structure of the crystal will move in their lattice to try to equalize the strain across the crystal, creating a mechanical vibration and changing the frequency of the clock signal. The output of the crystal serves as a reference timing point for various circuit operations. The frequency of the output of this crystal also has the advantage of being much more stable and reliable than other oscillator types available.

The ECS-260-10-36Q-JEN-TR is an effective electronics resource because it is much more accurate, efficient and stable than the majority of the crystals currently on the market. It has a wide and varied application field, including those within the consumer electronics industry, mobile communications, and computing and instrumentation. Thanks to its reliability and precision, the ECS-260-10-36Q-JEN-TR crystal is a great choice for applications in circumstances where accuracy and stability are essential.

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