CX2016DB38400D0GPSC1

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Crystals are one of the most versatile materials used in modern engineering and particularly in the medical, scientific and electronic industries. The CX2016DB38400D0GPSC1 is an example of one such crystal, a quartz crystal resonator, and is used in a wide range of applications that benefit from its precise frequency and temperature performance. The following sections will cover the application field of the CX2016DB38400D0GPSC1, along with its underlying working principle.

Application Field of the CX2016DB38400D0GPSC1

The CX2016DB38400D0GPSC1 resonator provides the necessary accuracy and stability in various frequencies, temperatures and operating conditions. These include frequency control and temperature stability functions in an extensive variety of applications such as watches, IC timing, modems, and metering. It is also available in both surface mount and through-hole packages, making it suitable for use in compact devices. Additionally, its reliability and low power operation make it ideal for use in products where long life, battery operated and low power are of vital importance. Furthermore, it can also be used as a voltage-controlled oscillator for controlling the frequency of signals, for data transmission and for monitoring external events. In addition, it can also be used in clock and timing systems, as well as for time base reference.

The Working Principle of the CX2016DB38400D0GPSC1

The CX2016DB38400D0GPSC1 operates within a crystal element package made of quartz crystal with silver electrodes. This quartz crystal is cut in a specific way and acts like a resonator which vibrates at a set frequency when stimulated with electrical impulses. These electrical impulses are provided by an oscillator circuit, causing the quartz crystal to oscillate at its normal frequency. The frequency of the quartz crystal oscillation can be controlled by altering the characteristics of the driving oscillator circuit. This allows the frequency of the resonator to be finely adjusted and provides accurate timing of various signals and functions.

The quartz crystal also exhibits a characteristic known as the aging effect which results in a gradual decrease in frequency due to a number of different factors such as temperature, aging and shock. The CX2016DB38400D0GPSC1 performs better than other resonators in controlling this aging effect and can maintain precise frequencies over a wide temperature range. The temperature stability of the CX2016DB38400D0GPSC1 is enhanced by the use of high precision base metals and the use of a thick film that covers the resonator.

The temperature compensation of the CX2016DB38400D0GPSC1 is also improved by the inclusion of an additional pair of silver electrodes which are connected to two ceramic spacers. These spacers contain a special dielectric material that has a positive temperature coefficient, which cancels out the negative temperature coefficient of the quartz crystal. This ensures that the frequency remains stable regardless of the temperature.

In addition, the CX2016DB38400D0GPSC1 can also be used in high shock and vibration applications. It is designed to provide a high level of reliability and stability in these difficult environments, without suffering from any ill effects. This is achieved by the use of high shock absorption materials and the addition of a high damping layer that acts as a buffer against sudden changes in temperature and frequency.

In conclusion, the CX2016DB38400D0GPSC1 quartz crystal resonator is a highly reliable and accurate component which is used in a wide range of applications where frequency stability and temperature control are of paramount importance. Its characteristics can be fine-tuned through the use of different oscillator circuits, ensuring its performance remains accurate over wide ranges of both temperature and frequency. Additionally, its robustness and durability make it suitable for use in many vibration and shock environments.

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