Metal-Substrate-Mediated Plasmon Hybridization in a Nanoparticle Dimer for Photoluminescence Line-Width Shrinking and Intensity Enhancement

Keyphrases

• Photoluminescence 100%
• Metal Substrate 100%
• Intensity Enhancement 100%
• Nanoparticle Dimer 100%
• Plasmon Hybridization 100%
• Substrate-mediated 100%
• Photoluminescence Emission 66%
• Metal Film 66%
• Nanocavity 66%
• Silica Support 66%
• Coupled Nanoparticles 66%
• Nanophotonics 33%
• Phenomenological Models 33%
• Numerical Calculation 33%
• Spectral Characteristics 33%
• Emission Linewidth 33%
• Ultrasmall 33%
• Plasmon Modes 33%
• Radiative Decay 33%
• Spectral Linewidth 33%
• Plasmonics 33%
• Ultimate Limit 33%
• Plasmon Resonance 33%
• Plasmon 33%
• Photoluminescence Intensity 33%
• Radiative Loss 33%
• Quadrupolar 33%
• Quadrupole Resonance 33%
• Plasmonic Nanostructures 33%
• Gap Mode 33%
• Particle Film 33%
• Mode Volume 33%
• Plasmonic Nanocavity 33%
• Low-quality Factor 33%
• Interaction Strength 33%
• Light-matter Interaction 33%
• Narrowing Effect 33%
• Sub-nanometer Particles 33%
• Dipolar Coupling 33%
• Linewidth Narrowing 33%
• Coupled Microcavities 33%
• Interparticle Gap 33%
• Plasmonic Scattering 33%
• Plasmonic Film 33%

Material Science

• Nanoparticle 100%
• Photoluminescence 100%
• Linewidth 100%
• Film 80%
• Nanocavity 80%
• Metal Film 40%
• Silicon Dioxide 40%
• Nanostructure 20%
• Dipolar Coupling 20%

Engineering

• Plasmonics 100%
• Line Width 100%
• Nanoparticles 100%
• Q Factor 40%
• Silicon Dioxide 40%
• Nanomaterial 20%
• Phenomenological Model 20%
• Numerical Calculation 20%
• Interaction Strength 20%
• Spectral Characteristic 20%
• Spectral Linewidth 20%
• Linewidth Emission 20%
• Monomer 20%