GC2500162 Crystals, Oscillators, Resonators

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Crystals are materials with a specific repeating internal structure which affects their electrical, optical, and acoustic properties. While most crystals have atomic or molecular structures, some are composed of metal atoms, semiconductor materials, or liquid crystals. The GC2500162 is a type of crystal that can be used in a variety of applications, including electronics, radio communication, and microwave technology. This article will discuss the application field and working principle of the GC2500162 crystal.

Application Field

The GC2500162 crystal is a type of quartz crystal, a specialized material used in precision frequency-control applications. It has a particularly low frequency drift rate, making it ideal for application in ultra-high frequency master oscillators, breadboard oscillators, and cryogenic equipment. It is also well suited for use in pulse generators, measurement instruments, and ultrasonic transducers. Additionally, the GC2500162 crystal is used as a source of reference frequency in phase-locked loop timing technologies.

The quartz crystal of the GC2500162 is designed to meet stringent specs which give it a high level of precision and accuracy when controlling electronic signals. It also features a wide operating temperature range, making it suitable for use even in extreme weather conditions. As a result, the GC2500162 crystal is a reliable and versatile choice for a range of precision frequency-control applications.

Working Principle

The working principle of the GC2500162 quartz crystal is based on the properties of piezoelectricity. Piezoelectric materials, including quartz, can generate an electrical current when a mechanical force is applied to them. Conversely, when an electrical current is applied to such a material, it can generate a mechanical vibration. This phenomenon is known as the inverse piezoelectric effect.

In the case of the GC2500162 crystal, a harmonic mechanical vibration is generated in response to an electrical signal. This oscillation is transmitted as an output signal with a specific frequency. This can be controlled and adjusted by varying the DC bias applied to the crystal. Furthermore, the frequency of the output signal can be further adjusted by connecting the crystal to an external capacitance or inductance.

The GC2500162 crystal is designed to be extremely stable and accurate when controlling frequencies. This makes it ideal for precision frequency control applications, especially in the radio communication and measurement instrument fields. The crystal is also designed to be tolerant of wide temperature ranges, making it suitable for use in extreme weather conditions.

Conclusion

The GC2500162 crystal is a quartz crystal designed for a range of precision frequency-control applications. It is based on the principles of piezoelectricity and can be controlled and adjusted with a DC bias signal and external circuitry. It is a reliable and versatile choice for a range of radio communication and measurement instrument needs, and is suitable for use in extreme weather conditions.

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