A study of plasmonic enhanced transmission effects in nano-optics
Author(s) -
Greg Gbur
Publication year - 2012
Language(s) - English
Resource type - Reports
DOI - 10.2172/1033563
Subject(s) - plasmon , surface plasmon , nanoscopic scale , nano , coherence (philosophical gambling strategy) , quantum , optoelectronics , quantum optics , quantum dot , optics , materials science , physics , nanotechnology , quantum mechanics
This project was a numerical study of the behavior of surface plasmons in nano-systems, focusing on the interaction between plasmons, light, and nano-scale structures such as nano-scale metallic wires and quantum wires/dots. The primary results of the project included: a) the demonstration of the use of surface plasmons to modify the spatial coherence of a light wave, b) the demonstration of a feasible plasmonic superresolved readout system, and c) the demonstration of a âÃÂÃÂPlasmonic Zeno effectâÃÂÃÂ, in which the attenuation of a light wave in metal is suppressed by breaking up the metal into a collection of structured layers. The integration of quantum wire/dot effects with the plasmonic simulations proved to be harder than expected, in large part due to the lack of accurate and simple quantum dot models
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