Designable Luminescence with Quantum Dot-Silver Plasmon Coupler

We explore a strongly interacting QDs/Ag plasmonic coupling structure that enables multiple approaches to manipulate light emission from QDs. Group II–VI semiconductor QDs with unique surface states (SSs) impressively modify the plasmonic character of the contiguous Ag nanostructures whereby the loc...

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Veröffentlicht in:Small (Weinheim an der Bergstrasse, Germany) Germany), 2014-08, Vol.10 (15), p.3099-3109
Hauptverfasser: Hu, Lian, Wu, Huizhen, Zhang, Bingpo, Du, Lingxiao, Xu, Tianning, Chen, Yongyue, Zhang, Yong
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container_issue 15
container_start_page 3099
container_title Small (Weinheim an der Bergstrasse, Germany)
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creator Hu, Lian
Wu, Huizhen
Zhang, Bingpo
Du, Lingxiao
Xu, Tianning
Chen, Yongyue
Zhang, Yong
description We explore a strongly interacting QDs/Ag plasmonic coupling structure that enables multiple approaches to manipulate light emission from QDs. Group II–VI semiconductor QDs with unique surface states (SSs) impressively modify the plasmonic character of the contiguous Ag nanostructures whereby the localized plasmons (LPs) in the Ag nanostructures can effectively extract the non‐radiative SSs of the QDs to radiatively emit via SS–LP resonance. The SS–LP coupling is demonstrated to be readily tunable through surface‐state engineering both during QD synthesis and in the post‐synthesis stage. The combination of surface‐state engineering and band‐tailoring engineering allows us to precisely control the luminescence color of the QDs and enables the realization of white‐light emission with single‐size QDs. Being a versatile metal, the Ag in our optical device functions in multiple ways: as a support for the LPs, for optical reflection, and for electrical conduction. Two application examples of the QDs/Ag plasmon coupler for optical devices are given, an Ag microcavity + plasmon‐coupling structure and a new QD light‐emitting diode. The new QDs/Ag plasmon coupler opens exciting possibilities in developing novel light sources and biomarker detectors. A strongly interacting QDs‐Ag plasmon coupler is explored where Ag plays three roles, namely that of support for localized plasmons, the role of mirror, and that of electrode. White‐light sources are realized by tuning the surface states of the QDs both during and after the synthesis stage.
doi_str_mv 10.1002/smll.201400094
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Group II–VI semiconductor QDs with unique surface states (SSs) impressively modify the plasmonic character of the contiguous Ag nanostructures whereby the localized plasmons (LPs) in the Ag nanostructures can effectively extract the non‐radiative SSs of the QDs to radiatively emit via SS–LP resonance. The SS–LP coupling is demonstrated to be readily tunable through surface‐state engineering both during QD synthesis and in the post‐synthesis stage. The combination of surface‐state engineering and band‐tailoring engineering allows us to precisely control the luminescence color of the QDs and enables the realization of white‐light emission with single‐size QDs. Being a versatile metal, the Ag in our optical device functions in multiple ways: as a support for the LPs, for optical reflection, and for electrical conduction. Two application examples of the QDs/Ag plasmon coupler for optical devices are given, an Ag microcavity + plasmon‐coupling structure and a new QD light‐emitting diode. The new QDs/Ag plasmon coupler opens exciting possibilities in developing novel light sources and biomarker detectors. A strongly interacting QDs‐Ag plasmon coupler is explored where Ag plays three roles, namely that of support for localized plasmons, the role of mirror, and that of electrode. 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The new QDs/Ag plasmon coupler opens exciting possibilities in developing novel light sources and biomarker detectors. A strongly interacting QDs‐Ag plasmon coupler is explored where Ag plays three roles, namely that of support for localized plasmons, the role of mirror, and that of electrode. 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subjects Devices
Diodes
Equipment Design
Equipment Failure Analysis
II-VI semiconductors
Joining
Light
light-emitting diodes
Luminescent Measurements - instrumentation
Materials Testing
Metal Nanoparticles - chemistry
Metal Nanoparticles - ultrastructure
Microcavities
Nanostructure
Nanotechnology
Plasmons
Quantum Dots
Scattering, Radiation
Semiconductors
Silver
Silver - chemistry
structure-property relationships
Surface Plasmon Resonance - instrumentation
Surface Properties
Synthesis
title Designable Luminescence with Quantum Dot-Silver Plasmon Coupler
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