A map of cavity magnonics: concepts, developments, and recent advances

Recent developments in the field of cavity magnonics are surveyed with a focus on emerging topics of particular interest for application to information technologies. The review begins with a brief tutorial, providing a conceptual foundation useful for understanding cavity magnon-polaritons. More detailed discussions follow that target directions that have received increasing attention in recent years. These topics include remote and long-distance coupling, topological magnonics, non-reciprocity, and explorations of these phenomena for quantum and single magnon regimes. Interest in this area is driven in large part by a combination of modern nano-fabrication techniques with microwave active materials in order to engineer new functionality and phenomena in forms useful for application across a range of classical and quantum technologies. Moreover, advances in the ability to control the coupling between photons and cavity magnons is creating an exciting playground within which to explore new physics enabled by precision studies of cavity magnon-polaritons. From an applications perspective, these studies are also important for information technologies due to a great potential to store, transfer, and manipulate information encoded in spin states, thereby offering unique advantages as platforms for power-efficient classical and quantum computing.

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Publication Details

Journal
Journal of Physics Condensed Matter
Published
2025-11-03
DOI
https://doi.org/10.1088/1361-648x/ae1ab9
Primary Topic
Mechanical and Optical Resonators
Type
article
Field-Weighted Citation Impact
0.00
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article

A map of cavity magnonics: concepts, developments, and recent advances

Alban Joseph, R. D. McKenzie, R. L. Stamps, Rair Macêdo et al.
Journal of Physics Condensed Matter
Mechanical and Optical Resonators
article

A map of cavity magnonics: concepts, developments, and recent advances

Alban Joseph, R. D. McKenzie, R. L. Stamps, Rair Macêdo, Mawgan A. Smith
article en

Abstract

Recent developments in the field of cavity magnonics are surveyed with a focus on emerging topics of particular interest for application to information technologies. The review begins with a brief tutorial, providing a conceptual foundation useful for understanding cavity magnon-polaritons. More detailed discussions follow that target directions that have received increasing attention in recent years. These topics include remote and long-distance coupling, topological magnonics, non-reciprocity, and explorations of these phenomena for quantum and single magnon regimes. Interest in this area is driven in large part by a combination of modern nano-fabrication techniques with microwave active materials in order to engineer new functionality and phenomena in forms useful for application across a range of classical and quantum technologies. Moreover, advances in the ability to control the coupling between photons and cavity magnons is creating an exciting playground within which to explore new physics enabled by precision studies of cavity magnon-polaritons. From an applications perspective, these studies are also important for information technologies due to a great potential to store, transfer, and manipulate information encoded in spin states, thereby offering unique advantages as platforms for power-efficient classical and quantum computing.

Journal of Physics Condensed MatterVol. 37(49)
University of Manitoba (CA), University of Glasgow (GB)
Openalex Percentile: Top 74%
Mechanical and Optical Resonators
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