RO3103E Crystals, Oscillators, Resonators

Resonators

RO3103E is an air-cored electromechanical resonator operating at a frequency of 3103Hz. Resonators are commonly used in acoustic applications, as they are able to generate precise and stable oscillations. This type of resonator can be used in a wide range of audio and communication applications, due to its high Q factor, which ensures that the resonance frequency is precise and remains unchanged over time.

Application Field of RO3103E

RO3103E is used primarily in audio applications. Its high Q factor ensures that the frequency of the oscillation is precise and highly stable, which is necessary for producing high quality sound. It can also be used in various communication systems, such as cordless telephones, as its stability also ensures reliable data transmission.

In addition, RO3103E is also used in a number of medical applications, such as ultrasound pulse generators, ultrasonic scanners, and medical therapeutic systems. Its precision and stability allows for accurate and reliable operation of these medical systems.

Working Principle of RO3103E

RO3103E works by taking advantage of the fact that when a mass is connected to a spring, it will vibrate at a certain frequency when a force is applied. This vibration is due to the energy stored in the spring being alternately released and absorbed, causing the mass to oscillate back and forth at a particular frequency. The frequency of the oscillation depends on the stiffness (or spring constant) of the spring, and the mass of the connected mass.

RO3103E uses two electromagnetic coils to drive the resonator. The two coils are alternately driven with electricity and magnetic forces, which causes the mass to oscillate. This generates the resonance frequency of 3103Hz, which is necessary for audio applications.

Another way in which RO3103E operates is by using an external voltage to adjust the frequency and resonance characteristics of the resonator. By varying the external voltage, the stiffness of the springs can be adjusted, thus adjusting the resonance frequency of the resonator. This allows the resonance frequency to be precisely adjusted to match the desired frequency for audio and communication applications.