405C35B12M80000 Crystals, Oscillators, Resonators

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Introduction to Crystals

Crystals have been used for millennia for their aesthetic beauty, spiritual connections and industrious applications. In modern times, crystal technology has become increasingly refined, with different types of crystals providing unique advantages in a range of applications. This article will provide an overview of crystals and take a specific look at the application fields and working principle of Model 405C35B12M80000.

Types of Crystals

Crystals are solid three-dimensional structures formed by repeating patterns of molecules, atoms and ions. These patterns, or lattices, are held together by electromagnetic energy, which results in their physical rigidity. Crystals are widely used in the development of electronic components, such as filters and oscillators. Some of the more common types of crystals used in electronic components and industrial applications include quartz, lithium tantalate, piezoelectric and ferroelectric crystals.

Application Fields of 405C35B12M80000 Crystals

Model 405C35B12M80000 is a quartz crystal oscillator. This type of crystal is used for frequency control and stability in electronics, and is mainly used for timing and frequency applications in radio communication systems and digital audio systems. The 405C35B12M80000 is ideal for these applications because its quartz crystal construction provides a highly accurate frequency, resulting in improved performance.

Working Principle of 405C35B12M80000 Crystals

As with all crystals, the 405C35B12M80000 operates using the piezoelectric effect—the phenomenon in which a voltage is generated when the crystal is subjected to mechanical stress. This type of crystal oscillator comprises two elements: a quartz crystal and an electronic circuit. The quartz crystal is placed between two metal plates and when a voltage is applied to the circuit, it causes the crystal to vibrate at a frequency determined by the crystal’s size, shape and vibration frequency.

The electronic circuit then amplifies this vibration, generating a signal which is used by the system to maintain a stable frequency. This process is known as frequency control, and is used to ensure that signals are transmitted at the required speed and accuracy. The 405C35B12M80000 is capable of providing frequency control across a range of frequencies, from around 50MHz to 200MHz.

Conclusion

Crystals are integral components of many modern electronics and industrial applications. Quartz crystal oscillators, like the 405C35B12M80000, provide reliable frequency control for radio communication systems, digital audio systems and other applications. The piezoelectric effect is the underlying principle of any crystal oscillator, and the 405C35B12M80000 uses this effect to generate a stable, accurate frequency across a range of frequencies.

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