Bloch-type photonic skyrmions in optical chiral multilayers

Magnetic skyrmions are topological quasiparticles in magnetization. Recently, as one of their photonic counterparts, Néel-type photonic skyrmions were discovered in evanescent electromagnetic waves. The deep-subwavelength features of the photonic skyrmions suggest their potential in optical imaging...

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Main Authors: Qiang Zhang, Zhenwei Xie, Luping Du, Peng Shi, Xiaocong Yuan
Format: Article
Language:English
Published: American Physical Society 2021-05-01
Series:Physical Review Research
Online Access:http://doi.org/10.1103/PhysRevResearch.3.023109
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author Qiang Zhang
Zhenwei Xie
Luping Du
Peng Shi
Xiaocong Yuan
author_facet Qiang Zhang
Zhenwei Xie
Luping Du
Peng Shi
Xiaocong Yuan
author_sort Qiang Zhang
collection DOAJ
description Magnetic skyrmions are topological quasiparticles in magnetization. Recently, as one of their photonic counterparts, Néel-type photonic skyrmions were discovered in evanescent electromagnetic waves. The deep-subwavelength features of the photonic skyrmions suggest their potential in optical imaging quantum technologies and data storage. Here, by exploiting the photonic quantum spin Hall effect of a plasmonic vortex in a trilayered structure, we predict the existence of photonic twisted-Néel- and Bloch-type skyrmions in chiral materials. Their chirality-dependent features can be considered as additional degrees of freedom for future chiral sensing, information processing, and storage technologies. In particular, our findings enrich the formations of photonic skyrmions and reveal a remarkable resemblance of the feature of chiral materials in two seemingly distant fields: photonic skyrmions and magnetic skyrmions.
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spelling doaj.art-65506f374a244477897b824322c9c60e2024-04-12T17:09:48ZengAmerican Physical SocietyPhysical Review Research2643-15642021-05-013202310910.1103/PhysRevResearch.3.023109Bloch-type photonic skyrmions in optical chiral multilayersQiang ZhangZhenwei XieLuping DuPeng ShiXiaocong YuanMagnetic skyrmions are topological quasiparticles in magnetization. Recently, as one of their photonic counterparts, Néel-type photonic skyrmions were discovered in evanescent electromagnetic waves. The deep-subwavelength features of the photonic skyrmions suggest their potential in optical imaging quantum technologies and data storage. Here, by exploiting the photonic quantum spin Hall effect of a plasmonic vortex in a trilayered structure, we predict the existence of photonic twisted-Néel- and Bloch-type skyrmions in chiral materials. Their chirality-dependent features can be considered as additional degrees of freedom for future chiral sensing, information processing, and storage technologies. In particular, our findings enrich the formations of photonic skyrmions and reveal a remarkable resemblance of the feature of chiral materials in two seemingly distant fields: photonic skyrmions and magnetic skyrmions.http://doi.org/10.1103/PhysRevResearch.3.023109
spellingShingle Qiang Zhang
Zhenwei Xie
Luping Du
Peng Shi
Xiaocong Yuan
Bloch-type photonic skyrmions in optical chiral multilayers
Physical Review Research
title Bloch-type photonic skyrmions in optical chiral multilayers
title_full Bloch-type photonic skyrmions in optical chiral multilayers
title_fullStr Bloch-type photonic skyrmions in optical chiral multilayers
title_full_unstemmed Bloch-type photonic skyrmions in optical chiral multilayers
title_short Bloch-type photonic skyrmions in optical chiral multilayers
title_sort bloch type photonic skyrmions in optical chiral multilayers
url http://doi.org/10.1103/PhysRevResearch.3.023109
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AT zhenweixie blochtypephotonicskyrmionsinopticalchiralmultilayers
AT lupingdu blochtypephotonicskyrmionsinopticalchiralmultilayers
AT pengshi blochtypephotonicskyrmionsinopticalchiralmultilayers
AT xiaocongyuan blochtypephotonicskyrmionsinopticalchiralmultilayers