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編輯推薦: |
本书在介绍经典的理论解释和应用时加入大量科研*前沿的进展,保证读者在能理解基础概念的同时,对本领域的发展进展和热点有一定了解。
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內容簡介: |
本书是基于作者多年在表面等离激元催化领域的科研成果,结合本领域的前沿科技进展,详述了表面等离激元-激子杂化在表面等离激元杂化领域的科研进展,详细全面地系统介绍。
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關於作者: |
主要从事基于表面等离激元增强的分子拉曼光谱的实验和理论研究。实现高真空针尖增强拉曼光谱仪,实现目标分子拉曼光谱的超灵敏检测,并揭示表面等离激元增强拉曼光谱的物理和化学机制。以通讯作者或第一作者在国际重要学术期刊上发表SCI 论文超过180 篇其中ESI 高引论文8篇。所有论文引用约5500多次,H-index 40。Researcher ID: B-1131-2008。10次应邀在国际重要期刊撰写本领域的综述。应邀撰写英文专著(科学出版社)2 本(第一作者)。2016 年,获辽宁省科学技术(自然科学)二等奖个人第二。2015 年,获辽宁省科学技术(自然科学)三等奖个人第五。
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目錄:
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CHAPTER1Introduction
CHAPTER2SPDrivenOxidationCatalyticReactions
2.1SPDrivenOxidationCatalyticReactionsbySERSin
AtmosphereEnvironment
2.1.1GenuineSERSSpectrumofPATP
2.1.2SPDrivenOxidationCatalyticReactionsofPATP
2.1.3SPDrivenOxidationCatalyticReactionsonMetal
SemiconductorHybrids
2.2SPDrivenOxidationCatalyticReactionsbySERSin
AqueousEnvironment
2.3SPDrivenOxidationCatalyticReactionsbyTERSin
AmbientEnvironment
2.4SPDrivenOxidationCatalyticReactionsbyTERSin
HVEnvironment
CHAPTER3SPDrivenReductionCatalyticReactions
3.1SPDrivenReductionCatalyticReactionsinAtmosphere
Environment
3.1.1SPDrivenReductionCatalyticReactionsbySERSin
AtmosphereEnvironment
3.1.2SPDrivenReductionCatalyticReactionsonMetal
SemiconductorHybrids
3.2SPDrivenReductionCatalyticReactionsbySERSin
AqueousEnvironment
3.2.1SetupofElectrochemicalSERS
3.2.2PotentialDependentPlasmonDrivenSequential
ChemicalReactions
3.2.3pHDependentPlasmonDrivenSequentialChemical
Reactions
3.2.4ElectroopticalTuningofPlasmonDrivenDouble
ReductionInterfaceCatalysis
3.3TheStabilityofPlasmonDrivenReductionCatalyticReactions
inAqueousandAtmosphereEnvironment
3.4SPDrivenReductionCatalyticReactionsbyTERS
3.4.1SPDrivenReductionCatalyticReactionsbyTERSin
AmbientEnvironment
3.4.2SPDrivenReductionCatalyticReactionsbyTERSin
HVEnvironment
3.4.3PlasmonHotElectronsorThermalEffectonSPDriven
ReductionCatalyticReactionsinHVEnvironment
CHAPTER4PhotoorPlasmonInducedOxidizedandReduced
Reactions
CHAPTER5ThePriorityofPlasmonDrivenReductionor
OxidationReactions
5.1PlasmonDrivenDiazoCouplingReactionsinAtmosphere
Environment
5.1.1CharacterizationofSERSandGrapheneMediated
SERSSubstrate
5.1.2SelectiveReductionReactionsofPNAontheAgNPs
inAtmosphereEnvironment
5.1.3SelectiveReductionReactionsofPNAontheSurface
ofGAgNPsHybridsinAtmosphereEnvironment
5.1.4HotElectronInducedReductionReactionsofPNA
onGAgNWsHybridsinAtmosphereEnvironment
5.2ThePriorityofPlasmonDrivenReductionorOxidationin
AqueousEnvironment
5.3ThePriorityofPlasmonDrivenReductionorOxidationin
HVEnvironment
CHAPTER6PlasmonExcitonCouplingInteractionforSurface
CatalyticReactions
61PlasmonExcitonCouplingInteractionforSurfaceOxidation
CatalyticReactions
6.1.1CharacterizationofAgNPsTiO2FilmHybrids
6.1.2AgNPsTiO2FilmHybridsforPlasmonExciton
CodrivenSurfaceOxidationCatalyticReactions
6.1.3PlasmonExcitonCouplingofAgNPsTiO2Film
HybridsStudiedbySERSSpectroscopy
6.1.4PlasmonExcitonCouplingofAgNPsTiO2Film
HybridsforSurfaceOxidationCatalyticReactions
underVariousEnvironments
6.2PlasmonExcitonCouplingInteractionforSurfaceReduction
CatalyticReactions
6.2.1PlasmonExcitonCouplingofMonolayerMoS2AgNPs
HybridsforSurfaceReductionCatalyticReactions
6.2.2UltrafastDynamicsofPlasmonExcitonCoupling
InteractionofGAgNWsHybridsforSurface
ReductionCatalyticReactions
6.2.3SurfaceReductionCatalyticReactionsonGSERSin
ElectrochemicalEnvironment
6.3UnifiedTreatmentforPlasmonExcitonCodrivenReduction
andOxidationReactions
CHAPTER7PlasmonExcitonCouplingInteractionbyFemtosecond
PumpProbeTransientAbsorptionSpectroscopy
7.1FemtosecondResolvedPlasmonExcitonCoupling
InteractionofGAgNWsHybrids
7.1.1FemtosecondResolvedPlasmonicDynamicsof
AgNWs
7.1.2FemtosecondResolvedPlasmonicDynamicsof
SingleLayerGraphene
7.1.3FemtosecondResolvedPlasmonicDynamicsof
PlasmonExcitonCouplingInteractionofGAg
NWsHybrids
7.2PhysicalMechanismonPlasmonExcitonCouplingInteraction
RevealedbyFemtosecondPumpProbeTransientAbsorption
Spectroscopy
CHAPTER8ElectricallyEnhancedPlasmonExcitonCoupling
InteractionforSurfaceCatalyticReactions
8.1ElectroopticalSynergyonPlasmonExcitonCodrivenSurface
ReductionCatalyticReactions
8.1.1PlasmonExcitonCouplingInteractionofMonolayer
GAgNPs
8.1.2ElectricalPropertiesofPlasmonExciton
CouplingDevice
8.1.3PlasmonExcitonCodrivenSurfaceReduction
CatalyticReactions
8.1.4BiasVoltageDependentPlasmonExcitonCodriven
SurfaceReductionCatalyticReactions
8.1.5GateVoltageDependentPlasmonExcitonCodriven
SurfaceReductionCatalyticReactions
8.2ElectricallyEnhancedHotHoleDrivenSurfaceOxidation
CatalyticReactions
CHAPTER9PlasmonWaveguideDrivenChemicalReactions
9.1PlasmonWaveguideforRemoteExcitation
9.1.1FeaturesofRemoteExcitationSERSandEarly
Application
9.1.2RemoteExcitationPlasmonDrivenChemical
Reactions
9.2RemoteExcitationPolarizationDependentSurface
PhotochemicalReactionsbyPlasmonWaveguide
9.3RemoteExcitationTimeDependentSurfaceCatalytic
ReactionsbyPlasmonWaveguide
CHAPTER10PlasmonDrivenDissociation
10.1ResonantDissociationofSurfaceAdsorbedMoleculesby
PlasmonicNanoscissors
10.2PlasmonicNanoscissorsforMolecularDesign
10.3PlasmonDrivenDissociationofH2
10.3.1PlasmonDrivenDissociationofH2onAu
10.3.2PlasmonDrivenDissociationofH2onAluminum
Nanocrystal
10.4PlasmonDrivenDissociationofN2
10.5PlasmonDrivenWaterSplitting
10.5.1PlasmonDrivenWaterSplittingunderVisible
Illumination
10.5.2Anautonomousphotosyntheticdeviceof
PlasmonDrivenWaterSplitting
10.6PlasmonDrivenDissociationofCO2
10.7RealSpaceandRealTimeObservationofaPlasmon
InducedChemicalReactionsofaSingleMolecule
10.8CompetitionbetweenReactionsandDegradationPathways
inPlasmonDrivenPhotochemistry
CHAPTER11SummaryandOutlook
Acknowledgements
References
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