Nonradiating anapole states in nanophotonics

from fundamentals to applications

Yuanqing Yang, Sergey I. Bozhevolnyi

Research output: Contribution to journalJournal articleResearchpeer-review

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Abstract

Nonradiating sources are nontrivial charge-current distributions that do
not generate fields outside the source domain. The pursuit of their possible existence has fascinated several generations of physicists and triggered developments in various branches of science ranging from medical imaging to dark matter. Recently, one of the most fundamental types of nonradiating sources, named anapole states, has been realized in nanophotonics regime and soon spurred considerable research efforts and widespread interest. A series of astounding advances have been achieved within a very short period of time, uncovering the great potential of anapole states in many aspects such as lasing, sensing, metamaterials, and nonlinear optics. In this review, we provide a detailed account of anapole states in nanophotonics research, encompassing
their basic concepts, historical origins, and new physical effects. We discuss the recent research frontiers in understanding and employing optical anapoles and provide an outlook for this vibrant field of research.
Original languageEnglish
Article number204001
JournalNanotechnology
Volume30
Issue number20
Number of pages18
ISSN0957-4484
DOIs
Publication statusPublished - 5. Mar 2019

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Nanophotonics
Nonlinear optics
Metamaterials
Medical imaging

Keywords

  • Mie scattering
  • anapole states
  • metamaterials
  • multipole expansion
  • nonlinear optics

Cite this

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title = "Nonradiating anapole states in nanophotonics: from fundamentals to applications",
abstract = "Nonradiating sources are nontrivial charge-current distributions that donot generate fields outside the source domain. The pursuit of their possible existence has fascinated several generations of physicists and triggered developments in various branches of science ranging from medical imaging to dark matter. Recently, one of the most fundamental types of nonradiating sources, named anapole states, has been realized in nanophotonics regime and soon spurred considerable research efforts and widespread interest. A series of astounding advances have been achieved within a very short period of time, uncovering the great potential of anapole states in many aspects such as lasing, sensing, metamaterials, and nonlinear optics. In this review, we provide a detailed account of anapole states in nanophotonics research, encompassingtheir basic concepts, historical origins, and new physical effects. We discuss the recent research frontiers in understanding and employing optical anapoles and provide an outlook for this vibrant field of research.",
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Nonradiating anapole states in nanophotonics : from fundamentals to applications. / Yang, Yuanqing; Bozhevolnyi, Sergey I.

In: Nanotechnology, Vol. 30, No. 20, 204001, 05.03.2019.

Research output: Contribution to journalJournal articleResearchpeer-review

TY - JOUR

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AU - Yang, Yuanqing

AU - Bozhevolnyi, Sergey I.

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AB - Nonradiating sources are nontrivial charge-current distributions that donot generate fields outside the source domain. The pursuit of their possible existence has fascinated several generations of physicists and triggered developments in various branches of science ranging from medical imaging to dark matter. Recently, one of the most fundamental types of nonradiating sources, named anapole states, has been realized in nanophotonics regime and soon spurred considerable research efforts and widespread interest. A series of astounding advances have been achieved within a very short period of time, uncovering the great potential of anapole states in many aspects such as lasing, sensing, metamaterials, and nonlinear optics. In this review, we provide a detailed account of anapole states in nanophotonics research, encompassingtheir basic concepts, historical origins, and new physical effects. We discuss the recent research frontiers in understanding and employing optical anapoles and provide an outlook for this vibrant field of research.

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