The integration of magnons and phonons in a thin film at room temperature opens new possibilities in the realm of information processing. With the limitations of traditional electron-based devices in terms of speed, heat generation, and energy loss, there is a growing interest in leveraging wave-like forms of energy such as sound, light, and spin to develop more efficient and environmentally friendly technologies. The recent research conducted by a team from the RIKEN Center for Emergent Matter Science in Japan, published in Physical Review Letters, showcases the potential of coupling magnons and phonons for the advancement of hybrid wave-based devices.

Exploring Magnons and Phonons

Magnons, representing the collective excitation of spins, and phonons, acoustic phenomena, were the focus of the study. By combining these wave-like forms, the researchers aimed to establish a strong coupling that could result in novel hybrid states, paving the way for significant progress in information processing. While previous attempts at coupling sound waves with magnets faced challenges due to mismatched frequencies, the team managed to overcome this obstacle by utilizing shear sound waves, which are more compatible with magnets.

A key factor that enabled the successful coupling of magnons and phonons in the Co20Fe60B20 film was the implementation of a nano-structured surface acoustic wave resonator. This on-chip device effectively confined ultrasound waves to specific locations, enhancing the propagation of shear sound waves and facilitating a strong connection between the surface waves and magnets within the resonator. The researchers’ innovative approach not only addressed the issue of frequency mismatch but also demonstrated the feasibility of achieving magnet-sound coupling at room temperature.

The collaborative efforts of the research team have significant implications for the development of wave-based information processing devices with minimal losses. By establishing coherent coupling between magnons and phonons, the study lays the groundwork for the advancement of technologies that can store and manipulate information in more efficient and effective ways. Furthermore, the exploration of hybrid wave-based devices holds promise for enhancing communication technologies and expanding the capabilities of information processing systems.

The successful coupling of magnons and phonons in a thin film by the team from the RIKEN Center for Emergent Matter Science represents a breakthrough in the field of information processing. By harnessing the unique properties of these wave-like forms of energy, the researchers have opened doors to a new era of hybrid wave-based devices that could revolutionize the way information is handled and transmitted. As further advancements are made in this area, the potential for creating more efficient and sustainable technologies in the realm of information processing continues to expand.

Physics

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