Coherent resonance of quantum plasmons in Stone-Wales defected graphene-silver nanowire hybrid system

Defected graphene has a more important practical significance than graphene. Silver nanoparticles can modify the optical properties of defected graphene. We present herein a detailed theoretical analysis about the coherent resonance of quantum plasmons in the Stone-Wales （SW） defected graphene-silve...

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Published in	Frontiers of physics Vol. 12; no. 5; pp. 99 - 107
Main Author	刘彤;张红;程新路;徐阳
Format	Journal Article
Language	English
Published	Beijing Higher Education Press 01.10.2017 Springer Nature B.V
Subjects	Absorption spectra Astronomy Astrophysics and Cosmology Atomic Coherence coherent resonance Condensed Matter Physics Density functional theory Electromagnetic fields Graphene hybrid system Hybrid systems Molecular Nanowires Optical and Plasma Physics Optical properties Particle and Nuclear Physics Photoelectricity Physics Physics and Astronomy Plasmons quantum plasmons Research Article Resonance Silver silver nanowires SW defected graphene Theoretical analysis 威尔士混合动力系统相干共振石墨等离子体共振缺陷量子银纳米线 United Kingdom > UK Wales quantum plasmons coherent resonance SW defected graphene silver nanowires hybrid system
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ISSN	2095-0462 2095-0470
DOI	10.1007/s11467-017-0676-8

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Abstract	Defected graphene has a more important practical significance than graphene. Silver nanoparticles can modify the optical properties of defected graphene. We present herein a detailed theoretical analysis about the coherent resonance of quantum plasmons in the Stone-Wales （SW） defected graphene-silver nanowire hybrid system by using time-dependent density functional theory. The plasmon coherent effect is mainly attributed to the electromagnetic field coupling between the Stone-Wales defected graphene and silver nanowires. As a result, the optical response of the hybrid system exhibits a remarkable enhancement. Plasmon resonance, which depends on polarization and selectable tuning, is enhanced in wide frequency regions. Moreover, it reveals that the resonance frequency of an optical absorption spectrum depends on the space configuration of the SW defected graphene in the hybrid system. This investigation provides a better understanding of the plasmon enhancement effect used in a graphene-based photoelectric device. The study also offers an effective means of detecting the defects existing in graphene.
AbstractList	Defected graphene has a more important practical significance than graphene. Silver nanoparticles can modify the optical properties of defected graphene. We present herein a detailed theoretical analysis about the coherent resonance of quantum plasmons in the Stone-Wales （SW） defected graphene-silver nanowire hybrid system by using time-dependent density functional theory. The plasmon coherent effect is mainly attributed to the electromagnetic field coupling between the Stone-Wales defected graphene and silver nanowires. As a result, the optical response of the hybrid system exhibits a remarkable enhancement. Plasmon resonance, which depends on polarization and selectable tuning, is enhanced in wide frequency regions. Moreover, it reveals that the resonance frequency of an optical absorption spectrum depends on the space configuration of the SW defected graphene in the hybrid system. This investigation provides a better understanding of the plasmon enhancement effect used in a graphene-based photoelectric device. The study also offers an effective means of detecting the defects existing in graphene. Defected graphene has a more important practical significance than graphene. Silver nanoparticles can modify the optical properties of defected graphene. We present herein a detailed theoretical analysis about the coherent resonance of quantum plasmons in the Stone–Wales (SW) defected graphene–silver nanowire hybrid system by using time-dependent density functional theory. The plasmon coherent effect is mainly attributed to the electromagnetic field coupling between the Stone–Wales defected graphene and silver nanowires. As a result, the optical response of the hybrid system exhibits a remarkable enhancement. Plasmon resonance, which depends on polarization and selectable tuning, is enhanced in wide frequency regions. Moreover, it reveals that the resonance frequency of an optical absorption spectrum depends on the space configuration of the SW defected graphene in the hybrid system. This investigation provides a better understanding of the plasmon enhancement effect used in a graphene-based photoelectric device. The study also offers an effective means of detecting the defects existing in graphene.
ArticleNumber	125201
Author	刘彤;张红;程新路;徐阳
AuthorAffiliation	College of Physical Science and Technology, Sichuan University, Chengdu 610064, China;Key Laboratory of High Energy Density Physics and Technology of Ministry of Education, Sichuan University, Chengdu 610064, China
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Notes	Defected graphene has a more important practical significance than graphene. Silver nanoparticles can modify the optical properties of defected graphene. We present herein a detailed theoretical analysis about the coherent resonance of quantum plasmons in the Stone-Wales （SW） defected graphene-silver nanowire hybrid system by using time-dependent density functional theory. The plasmon coherent effect is mainly attributed to the electromagnetic field coupling between the Stone-Wales defected graphene and silver nanowires. As a result, the optical response of the hybrid system exhibits a remarkable enhancement. Plasmon resonance, which depends on polarization and selectable tuning, is enhanced in wide frequency regions. Moreover, it reveals that the resonance frequency of an optical absorption spectrum depends on the space configuration of the SW defected graphene in the hybrid system. This investigation provides a better understanding of the plasmon enhancement effect used in a graphene-based photoelectric device. The study also offers an effective means of detecting the defects existing in graphene. quantum plasmons, coherent resonance, SW defected graphene, silver nanowires, hybrid system Tong Liu 1, Hong Zhang 1,2, Xin-Lu Cheng 2, Yang Xu 1（1 College of Physical Science and Technology, Sichuan University, Chengdu 610064, China; 2Key Laboratory of High Energy Density Physics and Technology of Ministry of Education, Sichuan University, Chengdu 610064, China） 11-5994/O4 quantum plasmons coherent resonance Document received on :2016-09-02 SW defected graphene silver nanowires Document accepted on :2017-01-25 hybrid system ObjectType-Article-1 SourceType-Scholarly Journals-1 ObjectType-Feature-2 content type line 14
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Snippet	Defected graphene has a more important practical significance than graphene. Silver nanoparticles can modify the optical properties of defected graphene. We...
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SubjectTerms	Absorption spectra Astronomy Astrophysics and Cosmology Atomic Coherence coherent resonance Condensed Matter Physics Density functional theory Electromagnetic fields Graphene hybrid system Hybrid systems Molecular Nanowires Optical and Plasma Physics Optical properties Particle and Nuclear Physics Photoelectricity Physics Physics and Astronomy Plasmons quantum plasmons Research Article Resonance Silver silver nanowires SW defected graphene Theoretical analysis 威尔士混合动力系统相干共振石墨等离子体共振缺陷量子银纳米线
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Title	Coherent resonance of quantum plasmons in Stone-Wales defected graphene-silver nanowire hybrid system
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