405C35D16M38400

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Crystals

Crystals offer great stability when compared to if a mechanical oscillator is used in an oscillator circuit or an amplified circuit. They are used in many commercial and hobbyist-applications, as well as many medical applications, for their accurate frequency stability. The 405C35D16M38400 crystal is a specific type of crystal oscillator that is used in a variety of applications, and has different working principles based on its crystalline structure.

Types of Crystals

Crystals come in two primary types: quartz and ceramic. Quartz crystals are the most common type of crystal and are the most often used for oscillator and resonator circuits. Ceramic crystals, on the other hand, are used for lower frequency applications where high-frequency stability is not as essential as it is in quartz crystals. Both types of crystals are made up of materials that possess piezoelectric properties, meaning they emit a voltage when under mechanical stress.

405C35D16M38400 Crystal Specifications

The 405C35D16M38400 is a crystal oscillator used for clock-signal generation in many applications. It has a nominal frequency of 16.38400MHz, with a frequency stability of ±3ppm from -20°C to +70°C. This crystal offers a low aging rate of 0.41ppm/year, and a long-term stability of ±15ppm. In addition, it has a high-frequency stability of 0.25ppm/day, and a load-capacitance of 10~20pF.

405C35D16M38400 Application Field and Working Principle

The 405C35D16M38400 crystal oscillator has a wide range of applications. It has already found use in applications such as PC motherboards, printers, and some medical devices. This crystal can also be used in clocks, timers, frequency counters, data processors, audio frequency generators, and other digital and analog electronic circuits that require precise timing signals.

The 405C35D16M38400 crystal oscillator works by using quartz or ceramic materials that are cut to a specific shape determined by the desired frequency of oscillation. The quartz or ceramic is then mounted onto a metal housing, with electrodes attached on either side. When an external voltage is applied to the crystal, the piezoelectric effect causes it to vibrate at its resonant frequency. This allows the crystal to generate a steady and precise frequency, which is then used as the timing signal or clock signal in many applications.

Conclusion

Crystals are essential components in many of today’s electronic devices. They offer high accuracy and stability, making them ideal for precise timing circuits. The 405C35D16M38400 is a particular type of crystal oscillator, used for clock signal generation in many applications. It offers high frequency stability, low aging rate, and high load capacitance, making it suitable for various applications. The working principle of the 405C35D16M38400 is based on the piezoelectric effect, where mechanical stress causes the crystal to vibrate at a specific frequency.

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