Semiconductor nanowire plasmonic lasers

Semiconductor nanowires (NW) hold great promise for micro/nanolasers owing to their naturally formed resonant microcavity, tightly confined electromagnetic field, and outstanding capability of integration with planar waveguide for on-chip optoelectronic applications. However, constrained by the opti...

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Main Authors: Li Chun, Liu Zhen, Chen Jie, Gao Yan, Li Meili, Zhang Qing
Format: Article
Language:English
Published: De Gruyter 2019-10-01
Series:Nanophotonics
Subjects:
Online Access:https://doi.org/10.1515/nanoph-2019-0206
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spelling doaj-bd678293cae349dd990891c8f1efa8422021-09-06T19:20:33ZengDe GruyterNanophotonics2192-86062192-86142019-10-018122091211010.1515/nanoph-2019-0206nanoph-2019-0206Semiconductor nanowire plasmonic lasersLi Chun0Liu Zhen1Chen Jie2Gao Yan3Li Meili4Zhang Qing5Department of Materials Science and Engineering, College of Engineering, Peking University, Beijing 100871, PR ChinaDepartment of Materials Science and Engineering, College of Engineering, Peking University, Beijing 100871, PR ChinaDepartment of Materials Science and Engineering, College of Engineering, Peking University, Beijing 100871, PR ChinaDepartment of Materials Science and Engineering, College of Engineering, Peking University, Beijing 100871, PR ChinaDepartment of Materials Science and Engineering, College of Engineering, Peking University, Beijing 100871, PR ChinaDepartment of Materials Science and Engineering, College of Engineering, Peking University, Beijing 100871, PR ChinaSemiconductor nanowires (NW) hold great promise for micro/nanolasers owing to their naturally formed resonant microcavity, tightly confined electromagnetic field, and outstanding capability of integration with planar waveguide for on-chip optoelectronic applications. However, constrained by the optical diffraction limit, the dimension of semiconductor lasers cannot be smaller than half the optical wavelength in free space, typically several hundreds of nanometers. Semiconductor NW plasmonic lasers provide a solution to break this limitation and realize deep sub-wavelength light sources. In this review, we summarize the advances of semiconductor NW plasmonic lasers since their first demonstration in 2009. First of all, we briefly look into the fabrication and physical/chemical properties of semiconductor NWs. Next, we discuss the fundamentals of surface plasmons as well as the recent progress in semiconductor NW plasmonic lasers from the aspects of multicolor realization, threshold reduction, ultrafast modulation, and electrically driven operations, along with their applications in sensing and integrated optics. Finally, we provide insights into bright perspectives and remaining challenges.https://doi.org/10.1515/nanoph-2019-0206semiconductor nanowireplasmonic lasernanoplasmonicssub-wavelength opticsphoton-plasmon interaction
collection DOAJ
language English
format Article
sources DOAJ
author Li Chun
Liu Zhen
Chen Jie
Gao Yan
Li Meili
Zhang Qing
spellingShingle Li Chun
Liu Zhen
Chen Jie
Gao Yan
Li Meili
Zhang Qing
Semiconductor nanowire plasmonic lasers
Nanophotonics
semiconductor nanowire
plasmonic laser
nanoplasmonics
sub-wavelength optics
photon-plasmon interaction
author_facet Li Chun
Liu Zhen
Chen Jie
Gao Yan
Li Meili
Zhang Qing
author_sort Li Chun
title Semiconductor nanowire plasmonic lasers
title_short Semiconductor nanowire plasmonic lasers
title_full Semiconductor nanowire plasmonic lasers
title_fullStr Semiconductor nanowire plasmonic lasers
title_full_unstemmed Semiconductor nanowire plasmonic lasers
title_sort semiconductor nanowire plasmonic lasers
publisher De Gruyter
series Nanophotonics
issn 2192-8606
2192-8614
publishDate 2019-10-01
description Semiconductor nanowires (NW) hold great promise for micro/nanolasers owing to their naturally formed resonant microcavity, tightly confined electromagnetic field, and outstanding capability of integration with planar waveguide for on-chip optoelectronic applications. However, constrained by the optical diffraction limit, the dimension of semiconductor lasers cannot be smaller than half the optical wavelength in free space, typically several hundreds of nanometers. Semiconductor NW plasmonic lasers provide a solution to break this limitation and realize deep sub-wavelength light sources. In this review, we summarize the advances of semiconductor NW plasmonic lasers since their first demonstration in 2009. First of all, we briefly look into the fabrication and physical/chemical properties of semiconductor NWs. Next, we discuss the fundamentals of surface plasmons as well as the recent progress in semiconductor NW plasmonic lasers from the aspects of multicolor realization, threshold reduction, ultrafast modulation, and electrically driven operations, along with their applications in sensing and integrated optics. Finally, we provide insights into bright perspectives and remaining challenges.
topic semiconductor nanowire
plasmonic laser
nanoplasmonics
sub-wavelength optics
photon-plasmon interaction
url https://doi.org/10.1515/nanoph-2019-0206
work_keys_str_mv AT lichun semiconductornanowireplasmoniclasers
AT liuzhen semiconductornanowireplasmoniclasers
AT chenjie semiconductornanowireplasmoniclasers
AT gaoyan semiconductornanowireplasmoniclasers
AT limeili semiconductornanowireplasmoniclasers
AT zhangqing semiconductornanowireplasmoniclasers
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