Topologically reconfigurable magnetic polaritons
Hyperbolic polaritons in extremely anisotropic materials have attracted intensive attention due to their exotic optical features. Recent advances in optical materials reveal unprecedented dispersion engineering of polaritons, resulting in twistronics for photons, canalized phonon polaritons, shear p...
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sg-ntu-dr.10356-1698462023-08-11T15:39:08Z Topologically reconfigurable magnetic polaritons Li, Min Hu, Guangwei Chen, Xuan Qiu, Cheng-Wei Chen, Hongsheng Wang, Zuojia School of Electrical and Electronic Engineering National University of Singapore Engineering::Electrical and electronic engineering Energy Transfer Magnetism Hyperbolic polaritons in extremely anisotropic materials have attracted intensive attention due to their exotic optical features. Recent advances in optical materials reveal unprecedented dispersion engineering of polaritons, resulting in twistronics for photons, canalized phonon polaritons, shear polaritons, and tunable topological polaritons. However, the on-demand reconfigurability of polaritons, especially with magnetic anisotropic dispersions, is restricted by weak natural magnetic anisotropy and hence remains largely unexplored. Here, we show how origami fused with artificial magnetism unveils a versatile pathway to topologically reconfigure magnetic polaritons. We experimentally demonstrate that the three-dimensional origami deformation allows to reconfigure hyperbolic or elliptic topology of polariton dispersion and modulate group velocity. With group velocity transitioning from positive to negative directions, we further report reconfigurable origami polariton circuitry in which the polariton propagation and phase distribution can be tailored. Our findings provide alternative perspectives on on-chip polaritonics, with potential applications in energy transfer, sensing, and information transport. Published version The work at Zhejiang University was sponsored by the Key Research and Development Program of the Ministry of Science and Technology under Grants No. 2022YFA1404704, and 2022YFA1405200, the National Natural Science Foundation of China (NNSFC) under Grants No. 62222115, No. 62171407, No. 11961141010 and No. 61975176, and the Fundamental Research Funds for the Central Universities. M. L acknowledges the support by the China Scholarship Council No. 2020063220086. C.-W.Q. acknowledges the support by the grant (A-0005947-16-00) from Advanced Research and Technology Innovation Centre (ARTIC) in National University of Singapore. 2023-08-08T00:52:19Z 2023-08-08T00:52:19Z 2022 Journal Article Li, M., Hu, G., Chen, X., Qiu, C., Chen, H. & Wang, Z. (2022). Topologically reconfigurable magnetic polaritons. Science Advances, 8(50), eadd6660-. https://dx.doi.org/10.1126/sciadv.add6660 2375-2548 https://hdl.handle.net/10356/169846 10.1126/sciadv.add6660 36525502 2-s2.0-85144293039 50 8 eadd6660 en Science Advances © 2022 The Authors, some rights reserved; exclusive licensee American Association for the Advancement of Science. No claim to original U.S. Government Works. Distributed under a Creative Commons Attribution NonCommercial License 4.0 (CC BY-NC). application/pdf |
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Engineering::Electrical and electronic engineering Energy Transfer Magnetism Li, Min Hu, Guangwei Chen, Xuan Qiu, Cheng-Wei Chen, Hongsheng Wang, Zuojia Topologically reconfigurable magnetic polaritons |
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Hyperbolic polaritons in extremely anisotropic materials have attracted intensive attention due to their exotic optical features. Recent advances in optical materials reveal unprecedented dispersion engineering of polaritons, resulting in twistronics for photons, canalized phonon polaritons, shear polaritons, and tunable topological polaritons. However, the on-demand reconfigurability of polaritons, especially with magnetic anisotropic dispersions, is restricted by weak natural magnetic anisotropy and hence remains largely unexplored. Here, we show how origami fused with artificial magnetism unveils a versatile pathway to topologically reconfigure magnetic polaritons. We experimentally demonstrate that the three-dimensional origami deformation allows to reconfigure hyperbolic or elliptic topology of polariton dispersion and modulate group velocity. With group velocity transitioning from positive to negative directions, we further report reconfigurable origami polariton circuitry in which the polariton propagation and phase distribution can be tailored. Our findings provide alternative perspectives on on-chip polaritonics, with potential applications in energy transfer, sensing, and information transport. |
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School of Electrical and Electronic Engineering |
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School of Electrical and Electronic Engineering Li, Min Hu, Guangwei Chen, Xuan Qiu, Cheng-Wei Chen, Hongsheng Wang, Zuojia |
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Article |
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Li, Min Hu, Guangwei Chen, Xuan Qiu, Cheng-Wei Chen, Hongsheng Wang, Zuojia |
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Li, Min |
title |
Topologically reconfigurable magnetic polaritons |
title_short |
Topologically reconfigurable magnetic polaritons |
title_full |
Topologically reconfigurable magnetic polaritons |
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Topologically reconfigurable magnetic polaritons |
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Topologically reconfigurable magnetic polaritons |
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topologically reconfigurable magnetic polaritons |
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2023 |
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https://hdl.handle.net/10356/169846 |
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1779156246380675072 |