416F52013ILR

416F52013ILR

Crystals are materials that have an orderly arrangement of atoms, ions, or molecules. A 416F52013ILR, also known as an Interdigitated Capacitor Quartz Crystal Resonator, is a type of crystal resonator developed to operate at frequencies above 100MHz, having higher resonance and pullability than those of conventional crystals. The 416F52013ILR is a premium class of crystal resonators and applications.

Application Fields

The 416F52013ILR can be used in a variety of applications, including communication, sensing, and instrumentation. In the field of communications, it is often employed as a filter, oscillator, or frequency synthesizer in a variety of radio, microwave, and communication systems. It can also be used in a variety of transducers, sensors, and detectors, as it is able to accurately detect and transmit pressure, force, temperature, or other detected phenomena. The 416F52013ILR can also be used in medical instruments, such as lab-on-a-chip systems and optical imaging systems.

Working Principles

The 416F52013ILR works on the principle that the frequency of the mechanical vibration of a seismic mass will be proportional to the stiffness of the mass and inversely proportional to the square of the mass. A crystal resonator consists of a seismic mass suspended on two supports, which can be activated either by electro-static or electromagnetic fields. As the frequency of the mechanical vibration changes, the electrical resonance frequency of the crystal resonator also changes. By adjusting the electrical resonance frequency of the crystal, it is possible to control the mechanical vibration frequency of the seismic mass. The change in vibration frequency can be used to adjust the resonant frequency of the crystal.

When the crystal resonator is coupled to an electrical circuit, oscillations occur in both the mechanical and electrical systems. As the frequency of the electrical oscillations increases, the frequency of the mechanical oscillations increases as well. This mechanism can be used to adjust the frequency of the crystal resonator, which in turn allows for precise control of the resonance frequency.

In addition to the mechanical oscillations of the seismic mass, the 416F52013ILR also contains a number of electrical components, such as capacitors, inductors, and resistors. These components interact with each other to cause oscillations in the electrical field, thus allowing for precise control of the resonance frequency. Furthermore, the design of the 416F52013ILR also allows for a wide range of electrical resonance frequency, making it a suitable choice for applications requiring precise control of frequency.

Conclusion

The 416F52013ILR is a premium class of crystal resonators and its applications. It works on the principles of the mechanical vibration of the seismic mass, and includes a variety of electrical components that interact to provide precise control of the resonance frequency. The 416F52013ILR can be used in a variety of applications, including communications, sensing, and instrumentation, and offers wide range of electrical resonance frequency.