Advanced Materials · 2007 · 814 citations · 120 references
Natural SciencesMaterials SciencePhysicsNanomaterialsNanotechnologyOpticsMetalsNanoscale MaterialsNanostructured SurfacesPlasmonic MaterialsPlasmonicsSurface PhysicsFabricationFabrication TechniquesNanostructuringNumerical ModelingOptical PropertiesPlasmonic NanostructuresPlasmonic SurfacesSurface Optical Properties
Plasmonics has attracted growing interest as advances in nanofabrication and numerical modeling enable deeper insight into controlled plasmon modes and their optical functionality. This review surveys nanostructuring approaches that manipulate plasmon modes to produce diverse optical properties, aiming to inspire further research in the field. The authors survey various nanostructured metal configurations investigated in plasmonics.
Abstract We provide an overview of the way in which different approaches to nanostructuring metals can lead to a wealth of interesting optical properties and functionality through manipulation of the plasmon modes that such structures support, a field known as plasmonics . The increasing interest in plasmonics derives in large measure from the interplay between better fabrication techniques and an awareness of the potential that controlled plasmon modes have to offer. The combination of nanometer‐scale fabrication techniques and increasingly sophisticated numerical modeling capabilities thus enables a significant advance in our understanding of the science underlying plasmonics. Here, we survey some of the different structures that have been explored. We hope that this Review will spur others to continue the exploration of this fascinating topic.
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Negative Refraction Makes a Perfect Lens
J. B. Pendry · Physical Review Letters · 2000 · 12.1K citations · Full text
Experimental Verification of a Negative Index of Refraction
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