The Magnetic Dislocation for Trapping and Adiabatic Conversion of Light

ABSTRACT The dislocation created in the topological material lays the foundation of many significant findings to control light but requires delicate fabrication of the material. To extend its flexibility and reconfigurability, we propose the magnetic dislocation concept and unveil its properties in a representative model, which effectively combines the topological defect and edge mode at the magnetic domain wall. The results include distinct localization modes and robust light trapping phenomena with the rainbow feature where the eigen‐energy of each light‐trapping state can be linearly tuned by the magnetic dislocation. The conversion from the trapping state to edge modes can be harnessed by further adiabatically pumping light across an amount of the magnetic dislocation variation. Our work solves a fundamental problem involving reconfigurability by introducing magnetic dislocation with new light‐manipulation flexibility, which may be implemented in a variety of platforms in photonic, acoustics, and optomechanics with dynamic modulations and synthetic dimensions.

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Publication Details

Journal
Laser & Photonics Review
Published
2025-11-06
DOI
https://doi.org/10.1002/lpor.202401951
Citations
1
Primary Topic
Topological Materials and Phenomena
Type
article
Field-Weighted Citation Impact
1.25
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article

The Magnetic Dislocation for Trapping and Adiabatic Conversion of Light

Luqi Yuan, Kun Ding, Danying Yu, Xianfeng Chen
1 citations
Laser & Photonics Review
Topological Materials and Phenomena
1.25
article

The Magnetic Dislocation for Trapping and Adiabatic Conversion of Light

Luqi Yuan, Kun Ding, Danying Yu, Xianfeng Chen
article en
1 citations

Abstract

ABSTRACT The dislocation created in the topological material lays the foundation of many significant findings to control light but requires delicate fabrication of the material. To extend its flexibility and reconfigurability, we propose the magnetic dislocation concept and unveil its properties in a representative model, which effectively combines the topological defect and edge mode at the magnetic domain wall. The results include distinct localization modes and robust light trapping phenomena with the rainbow feature where the eigen‐energy of each light‐trapping state can be linearly tuned by the magnetic dislocation. The conversion from the trapping state to edge modes can be harnessed by further adiabatically pumping light across an amount of the magnetic dislocation variation. Our work solves a fundamental problem involving reconfigurability by introducing magnetic dislocation with new light‐manipulation flexibility, which may be implemented in a variety of platforms in photonic, acoustics, and optomechanics with dynamic modulations and synthetic dimensions.

Laser & Photonics ReviewVol. 20(6)
Shanghai Jiao Tong University (CN), Fudan University (CN), Shandong Normal University (CN), Shanghai Clinical Research Center (CN)
Openalex Percentile: Top 16%
Topological Materials and Phenomena
1.25
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