We show that the strongly depolarized light scattering from noble metal particles is a result of interference of two surface plasmon resonances on the same particle. The maximum depolarization occurs between two resonances. Under favorable conditions the anisotropy of the scattering light can be much lower than what is possible for dielectric particles. This explanation is discussed in relation to earlier published experimental measurements. Comparison of experimental results with theoretical calculations provides information on the shape distribution of metallic particles in the suspension. (c) 2006 Elsevier B.V. All rights reserved
Although small round gold nanoparticles (Au NPs) possess only a small degree of shape anisotropy, th...
We study surface plasmon excitation in pairs of identical Au nanoparticles by optical transmission s...
Plasmonics is the branch of photonics that is concerned with the interactions which take place betwe...
We show that the strongly depolarized light scattering from noble metal particles is a result of int...
We report the depolarized light scattering from heterodisperse silver nanoparticles. The profile of ...
The efficiency of light scattering on metal nanoparticles with an excitation of plasmon resonance el...
Using spectroscopic ellipsometry and analytical multiple scattering theory, we demonstrate significa...
At very low photon energies most metals have a very large and negative dielectric function. For the ...
Surface plasmon resonance has become a widely investigated phenomenon in the past few years. Initial...
The chemical nature of surface adsorbates affects the localized surface plasmon resonance of metal n...
This project examines how the collective oscillation of electrons in optically excited metal nanopar...
We study the coupling induced by retardation effects when two plasmon-resonant nanoparticles are int...
The interaction of light with metal nanoparticles leads to novel phenomena mediated by surface plasm...
We investigate the interaction of tightly focused light with the surface-plasmon-polariton resonance...
The optical frequency doubling properties of silver, copper, and platinum nanoparticles in aqueous s...
Although small round gold nanoparticles (Au NPs) possess only a small degree of shape anisotropy, th...
We study surface plasmon excitation in pairs of identical Au nanoparticles by optical transmission s...
Plasmonics is the branch of photonics that is concerned with the interactions which take place betwe...
We show that the strongly depolarized light scattering from noble metal particles is a result of int...
We report the depolarized light scattering from heterodisperse silver nanoparticles. The profile of ...
The efficiency of light scattering on metal nanoparticles with an excitation of plasmon resonance el...
Using spectroscopic ellipsometry and analytical multiple scattering theory, we demonstrate significa...
At very low photon energies most metals have a very large and negative dielectric function. For the ...
Surface plasmon resonance has become a widely investigated phenomenon in the past few years. Initial...
The chemical nature of surface adsorbates affects the localized surface plasmon resonance of metal n...
This project examines how the collective oscillation of electrons in optically excited metal nanopar...
We study the coupling induced by retardation effects when two plasmon-resonant nanoparticles are int...
The interaction of light with metal nanoparticles leads to novel phenomena mediated by surface plasm...
We investigate the interaction of tightly focused light with the surface-plasmon-polariton resonance...
The optical frequency doubling properties of silver, copper, and platinum nanoparticles in aqueous s...
Although small round gold nanoparticles (Au NPs) possess only a small degree of shape anisotropy, th...
We study surface plasmon excitation in pairs of identical Au nanoparticles by optical transmission s...
Plasmonics is the branch of photonics that is concerned with the interactions which take place betwe...