GL045F23CDT

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Crystals have been used in a variety of applications and are essential components in measuring and control technology. The GL045F23CDT crystal is used in frequency control and precision oscillators. This crystal is well suited to circuits requiring a low power source of stable frequency and comes in a wide range of comprehensive frequency ranges.

The GL045F23CDT features temperature stability within a wide range of operating temperatures of -10℃ to +60℃, remarkably low noise levels, and a frequency stability of ±20ppm over the 0℃ to +50℃ range. The crystal also boasts a high resonance impedance (Zx), low ESR, and an excellent S-parameter. Furthermore, the GL045F23CDT crystal is able to operate at up to 1 MHz and withstand plenty of processing.

The GL045F23CDT is mostly used in measuring and controlling technology because of its stability and low noise levels. In particular, its precise operation makes it a great choice for frequency count applications such as Frequencyto-Voltage converters and switchers. It is also used in high-end frequency control technologies, such as low-jitter oscillators, frequency synthesizers, and high-precision switching regulators. Additionally, this crystal can be used in consumer technologies, such as clocks, telecommunication systems, and FM/AM transmission.

The working principle of the GL045F23CDT crystal is closely tied to its physical structure. The outside of the crystal is made of electrodes and it also contains an X-axis and Y-axis. When an electric signal passes through the electrodes, it is split in two and then propagated through the rest of the crystal along the X-axis and Y-axis. These two signals will eventually collide, creating the resonance frequency which is used to control the oscillations of the system.

Overall, the GL045F23CDT crystal is a great choice for a variety of applications that require precise frequency control. Its low noise levels and temperature stability help to make it a reliable solution for a range of devices, from high-end frequency control technologies such as digital frequency synthesizers to consumer products such as clocks. Furthermore, its working principle is based on the interaction between its X and Y-axis to create the resonance frequency needed to control oscillations.

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