Frontiers in Chemistry · 2020 · 38 citations · 64 references
Natural SciencesMaterials SciencePhysicsCondensed Matter PhysicsNanomaterialsNanotechnologyNanomaterial CharacterizationOptical Properties Of SolidsPlasmonic MaterialsPlasmonic NanomaterialsPlasmonicsBoundary Element AnalysisMetal NanoparticlesMetallic NanostructuresNanoparticlesNanostructuresOptical Dielectric ResponseOptical PropertiesPlasmonic Nanoparticles
The fully atomistic model, $\omega$FQ, based on textbook concepts (Drude theory, electrostatics, quantum tunneling) recently developed by some of the present authors in \textit{Nanoscale}, \textbf{11}, 6004-6015 is applied to the calculation of the optical properties of complex Na, Ag and Au nanostructures. In $\omega$FQ, each atom of the nanostructures is endowed with an electric charge, which can vary according to the external electric field. The electric conductivity between nearest atoms is modeled by adopting the Drude model, which is reformulated in terms of electric charges. Quantum tunneling effects are considered by letting the dielectric response of the system arise from atom-atom conductivity. $\omega$FQ is challenged to reproduce the optical response of metal nanoparticles of different size and shape and its performance is compared with continuum Boundary Element Method (BEM) calculations.
64
Plasmonics for improved photovoltaic devices
Harry A. Atwater, Albert Polman · Nature Materials · 2010 · 8.3K citations
Single Molecule Detection Using Surface-Enhanced Raman Scattering (SERS)
Katrin Kneipp, Yang Wang, Harald Kneipp et al. · Physical Review Letters · 1997 · 6.7K citations
Natural Sciences, Chemistry, Physics +17
Martin Moskovits · Reviews of Modern Physics · 1985 · 5.4K citations