Solving surface plasmon resonances and near field in metallic nanostructures: Green's matrix method and its applications
With the development of nanotechnology, many new optical phenomena in nanoscale have been demonstrated. Through the coupling of optical waves and collective oscillations of free electrons in metallic nanostructures, surface plasmon polaritons can be excited accompanying a strong near field enhancement that decays in a subwavelength scale, which have potential applications in the surface-enhanced Raman scattering, biosensor, optical communication, solar cells, and nonlinear optical frequency mixing. In the present article, we review the Green's matrix method for solving the surface plasmon resonances and near field in arbitrarily shaped nanostructures and in binary metallic nanostructures. Using this method, we design the plasmonic nanostructures whose resonances are tunable from the visible to near-infrared, study the interplay of plasmon resonances, and propose a new way to control plasmonic resonances in binary metallic nanostructures.
Keywords: nanooptics ; surface plasmon resonance ; near field ; metallic nanostructure ; Discrete-Dipole Approximation ; Particle Pairs ; Optical-Properties ; Nano-Optics ; Nanoparticles ; Scattering ; Polaritons ; Model
Record created on 2011-04-11, modified on 2016-08-09