Advances in Metaphotonics Empowered Single Photon Emission

Spontaneous photon emission can be drastically modified by placing quantum emitters (QEs) in nanostructured environment, resulting in dramatically enhanced emission rates due to the Purcell effect along with generation of collimated single‐photon beams propagating in design directions and featuring...

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Published inAdvanced optical materials Vol. 11; no. 10
Main Authors Kan, Yinhui, Bozhevolnyi, Sergey I.
Format Journal Article
LanguageEnglish
Published Weinheim Wiley Subscription Services, Inc 01.05.2023
Subjects
Collimation
Design
Emitters
Materials science
Metasurfaces
Nanostructure
Optics
Photon beams
Photon emission
Photons
Plasmons
Polarization
Purcell effect
quantum emitters
Quantum phenomena
single‐photon generation
spontaneous emission
surface plasmons
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ISSN2195-1071
2195-1071
DOI10.1002/adom.202202759

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Abstract Spontaneous photon emission can be drastically modified by placing quantum emitters (QEs) in nanostructured environment, resulting in dramatically enhanced emission rates due to the Purcell effect along with generation of collimated single‐photon beams propagating in design directions and featuring well‐defined polarization states. Recent advances in single‐photon generation engineering demonstrate fascinating possibilities for the directional emission of photons with designed spin and orbital angular momenta, a development that is crucial for exploiting the full potential of QEs within quantum information technologies. Although many different nanostructured configurations are considered for hosting QEs to mold single‐photon beams, collimating of the latter requires relatively large interaction areas to be involved, thus making the use of metasurfaces preferential. Furthermore, optical metasurfaces consisting of planar arrays of resonant nanoscale elements offer complete control over optical fields and thereby design freedom in shaping single‐photon emission. Here, recent advances in exploiting quantum optical metasurfaces for achieving enhanced and directional emission of single photons with specified polarization properties are overviewed. Special attention is paid to hybrid plasmon–QE coupled metasurfaces based on efficient QE coupling to surface plasmon modes that are subsequently outcoupled by designed dielectric nanoarrays into free propagating photon emission. Perspectives for future developments of metasurface empowered QEs are also discussed. State‐of‐the‐art progress of single‐photon generation engineering with metaphotonics empowered single photon emission is reviewed with emphasis on hybrid plasmon‐quantum emitter (QE) coupled metasurfaces for exploiting full potential of photon emission freedoms. Recent advances in generation of entangled photon pairs with nonlinear metasurfaces are also presented. Furthermore, perspectives for future developments of metasurface empowered QEs are discussed.
AbstractList Spontaneous photon emission can be drastically modified by placing quantum emitters (QEs) in nanostructured environment, resulting in dramatically enhanced emission rates due to the Purcell effect along with generation of collimated single‐photon beams propagating in design directions and featuring well‐defined polarization states. Recent advances in single‐photon generation engineering demonstrate fascinating possibilities for the directional emission of photons with designed spin and orbital angular momenta, a development that is crucial for exploiting the full potential of QEs within quantum information technologies. Although many different nanostructured configurations are considered for hosting QEs to mold single‐photon beams, collimating of the latter requires relatively large interaction areas to be involved, thus making the use of metasurfaces preferential. Furthermore, optical metasurfaces consisting of planar arrays of resonant nanoscale elements offer complete control over optical fields and thereby design freedom in shaping single‐photon emission. Here, recent advances in exploiting quantum optical metasurfaces for achieving enhanced and directional emission of single photons with specified polarization properties are overviewed. Special attention is paid to hybrid plasmon–QE coupled metasurfaces based on efficient QE coupling to surface plasmon modes that are subsequently outcoupled by designed dielectric nanoarrays into free propagating photon emission. Perspectives for future developments of metasurface empowered QEs are also discussed.
Spontaneous photon emission can be drastically modified by placing quantum emitters (QEs) in nanostructured environment, resulting in dramatically enhanced emission rates due to the Purcell effect along with generation of collimated single‐photon beams propagating in design directions and featuring well‐defined polarization states. Recent advances in single‐photon generation engineering demonstrate fascinating possibilities for the directional emission of photons with designed spin and orbital angular momenta, a development that is crucial for exploiting the full potential of QEs within quantum information technologies. Although many different nanostructured configurations are considered for hosting QEs to mold single‐photon beams, collimating of the latter requires relatively large interaction areas to be involved, thus making the use of metasurfaces preferential. Furthermore, optical metasurfaces consisting of planar arrays of resonant nanoscale elements offer complete control over optical fields and thereby design freedom in shaping single‐photon emission. Here, recent advances in exploiting quantum optical metasurfaces for achieving enhanced and directional emission of single photons with specified polarization properties are overviewed. Special attention is paid to hybrid plasmon–QE coupled metasurfaces based on efficient QE coupling to surface plasmon modes that are subsequently outcoupled by designed dielectric nanoarrays into free propagating photon emission. Perspectives for future developments of metasurface empowered QEs are also discussed. State‐of‐the‐art progress of single‐photon generation engineering with metaphotonics empowered single photon emission is reviewed with emphasis on hybrid plasmon‐quantum emitter (QE) coupled metasurfaces for exploiting full potential of photon emission freedoms. Recent advances in generation of entangled photon pairs with nonlinear metasurfaces are also presented. Furthermore, perspectives for future developments of metasurface empowered QEs are discussed.
Author Kan, Yinhui
Bozhevolnyi, Sergey I.
Author_xml – sequence: 1
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  surname: Bozhevolnyi
  fullname: Bozhevolnyi, Sergey I.
  email: seib@mci.sdu.dk
  organization: University of Southern Denmark
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Snippet Spontaneous photon emission can be drastically modified by placing quantum emitters (QEs) in nanostructured environment, resulting in dramatically enhanced...
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SubjectTerms Collimation
Design
Emitters
Materials science
Metasurfaces
Nanostructure
Optics
Photon beams
Photon emission
Photons
Plasmons
Polarization
Purcell effect
quantum emitters
Quantum phenomena
single‐photon generation
spontaneous emission
surface plasmons
Title Advances in Metaphotonics Empowered Single Photon Emission
URI https://onlinelibrary.wiley.com/doi/abs/10.1002%2Fadom.202202759
https://www.proquest.com/docview/2815846711
Volume 11
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