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Nanophotonics: From Quantum Confinement to Collective Interactions in Metamaterial Heterostructures

Published

Author(s)

Anna L. Rast, Vinod K. Tewary

Abstract

Nanophotonic materials have unique properties that are due to behavior on the quantum scale, as well as properties that emerge due to collective interactions within the system. These collective interactions may include complex quasiparticle interactions as well as structural coupling in the device, at an interfacial boundary in a heterostructure, for example. Physical properties of nanophotonic materials may be modeled with a high degree of accuracy, provided that the technique used takes into account both properties on the atomistic scale as well as the continuum, as well as bridging this hierarchal gap. This chapter details the theory and modeling techniques involved in creating accurate and predictive models for nanophotonic materials.
Citation
Modeling, characterization, and production of nanomaterials Electronics, photonics and energy applications
Publisher Info
Elsevier, Waltham, MA

Citation

Rast, A. and Tewary, V. (2015), Nanophotonics: From Quantum Confinement to Collective Interactions in Metamaterial Heterostructures, Modeling, characterization, and production of nanomaterials Electronics, photonics and energy applications, Elsevier, Waltham, MA (Accessed April 22, 2021)
Created March 18, 2015, Updated February 19, 2017