TS081F23CET

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Crystals

Crystals are formed when atoms, molecules, or ions come together in a repeating pattern and form a lattice structure. Some crystals, such as salt or diamond, are well-known and have been used in commerce and industry since ancient times. Others, such as semiconductors, are less familiar, but they still play a major role in modern technology.

A type of crystal that is gaining increasing application in industrial settings is the TS081F23CET crystal. These crystals are used in the automotive, consumer electronics, consumer appliances, telecommunications, and medical sectors for time-keeping and frequency control. The TS081F23CET crystals are made of titanium-niobium alloy and feature a miniature package. The crystals come in a wide range of frequencies, from 10MHz to 80MHz.

Applications of TS081F23CET Crystals

The main application of TS081F23CET crystals is in frequency and time-keeping. They are used in a variety of applications, ranging from general purpose crystal oscillators, to precision clocks and timing sources. They are used in computers, mobile devices, Ethernet modems, and the like for frequency control and time-keeping. They are also used in automotive applications such as dashboard clocks, traffic control systems, and speed limiters.

Working Principle of TS081F23CET Crystals

The working principle behind a TS081F23CET crystal is simple. When an alternating voltage is applied, the crystal begins to vibrate at a precise frequency. This frequency is determined by the structure of the crystal. The oscillations are then used to keep the frequency of clocks and other radios, telephone and computers operating at the precise frequency.

The precise frequency of the vibrating crystal can be controlled by controlling the temperature. When the temperature around the crystal increases, the lattice structure inside the crystal gets disturbed, resulting in an increase in frequency. Similarly, when the temperature around the crystal decreases, the lattice structure inside the crystal gets disturbed and the frequency decreases. This phenomenon is known as the Delamart effect.

In order to maintain a precise frequency over long periods of time, the crystal must be kept in a stable environment where the temperature does not change suddenly. Temperature-compensated quartz oscillators, which combine a quartz crystal with electronic temperature sensors, are used to maintain precise frequencies over long periods.

Conclusion

TS081F23CET crystals have found increasing application in industrial settings. They are used for frequency control and time-keeping in many devices, from computers and mobile devices to cars and traffic control systems. Their working principle is based on the Delamart effect, which states that the frequency of the oscillating crystal can be controlled by controlling the temperature. Temperature-compensated quartz oscillators ensure that precise frequencies can be maintained over long periods of time.

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