RO3101C

Resonators play an important role in various applications, and technology has constantly been striving to effectively raise its performance. The RO3101C resonator is an example of such advancements, and it has potential applications in a wide range of industries. This article discusses the RO3101C resonator\'s working principle and its application field.

Introduction to RO3101C resonator

The RO3101C series of crystals is a miniaturized, horizontal, monolithic, AT-cut quartz crystal unit with high precision and miniaturized package. It is optimized for providing low noise and outstanding frequency stability in a compact form factor. The RO3101C resonators have low insertion loss and high isolation which makes it ideal for high-accuracy timing applications. The quality factor (Q) of the resonator design is quite large, which helps to maintain the resonance of the oscillator at a given frequency.

Application field of RO3101C resonator

The RO3101C resonator is widely used in various applications, such as digital audio players, GPS navigators, medical equipments, data communication devices, Bluetooth devices, digital cameras, and radiation systems. This resonator offers an integrated solution for digital boxes, smart devices, and RF modules. Its performance, durability and quality make it suitable for high-end audio and video products in the broadcasting industry. Also, the RO3101C resonator is widely used in industrial automation and test & measurement equipment, wireless communication components, automotive radar systems, IGNT, PND, and other related electronic products.

Working principle of RO3101C resonator

The RO3101C resonator consists of a quartz crystal element and a metal chamber which is fixed and sealed on a PCB. The crystal element is excited via an external electrical field, which causes the crystal to vibrate at a specific frequency. The frequency of vibration of the crystal determines the resonance frequency of the resonator. The electrical pulse at the resonance frequency is then amplified by the metal chamber and transmitted outside the resonator.

The resonance frequency of the resonator is determined by the diameter, thickness and temperature of the quartz crystal element. The resonator is designed with a range of frequencies from 16.3kHz to 65.41MHz, with a frequency stability of 0.04ppm to 10000ppm, and a reliability of 105 cycles.

Conclusion

The RO3101C resonator provides a reliable and stabilized timebase solution, ideal for applications where size and tight frequency stability are important. Its miniaturized design and high isolation make it suitable for a wide range of applications. The availability of multiple frequencies allows the resonator to be used in a variety of applications.