CSTCE20M0V53C-R0 Crystals, Oscillators, Resonators

CSTCE20M0V53C-R0 is a resonance device typically used on multi-layer surface acoustic wave (SAW) filters. It is a type of acoustic resonator that is usually fabricated on a piezoelectric substrate and is characterized by a low damping ratio, a relatively high unloaded quality factor, and a high frequency stability along with a wide stopband.As an acoustic resonator, CSTCE20M0V53C-R0 can be used to generate, store, and transfer mechanical energies in many applications. It consists of a piezoelectric substrate upon which is etched a transducer consisting of electrodes in the shape of a spiral. When voltage is applied to the electrodes, acoustic waves are generated in the substrate.

CSTCE20M0V53C-R0 has wide application across different areas. It is used in telecommunications and signal processing where the SAW filter is employed as a bandpass or bandstop element. This resonator is also used in navigation systems, such as marine navigation systems where it is used to generate very high-frequency acoustic signals. It is also used in medical diagnostic applications where the SAW filter is used to detect and measure various biochemical parameters.

The working principle of CSTCE20M0V53C-R0 is based on acoustic resonance. When electric potential is applied to the substrate, mechanical energy is generated which is measured by a motion sensor. The mechanical energy then propagates through the resonator at different frequencies and is measured at different points in the resonator. The frequency and phase of the propagating wave can be varied by tuning the capacitance, inductance, and active elements in the resonator. The resonator is then tuned to the desired frequency and phase which maximizes the efficiency and power of the resonator.

CSTCE20M0V53C-R0 is a widely used acoustic resonator and its applications span across different areas in the industry. It consists of a substrate upon which electrodes are etched in the shape of a spiral. When electric potential is applied to the substrate, mechanical energy is generated which propagates through the resonator at different frequencies and phase. The frequency and phase of the propagating wave can be tuned by tuning the capacitance, inductance, and active elements in the resonator. Once tuned to a desired frequency and phase, it can be used to generate, store, and transfer mechanical energies which is useful in various applications.