Equivalent Left-Handed/Right-Handed Metamaterial's Circuit Model for the Massless Dirac Fermions With Negative Refraction

A new circuit model for the graphene p-n junction (PNJ) is introduced, which is based on the model proposed by Cheianov , using equivalent quantum circuit elements. Our model is similar to the transmission line circuit model for the interface of left-handed/right-handed materials in optics and micro...

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Veröffentlicht in:IEEE journal of selected topics in quantum electronics 2010-03, Vol.16 (2), p.394-400
Hauptverfasser: Dehbashi, Reza, Fathi, Davood, Mohajerzadeh, Shamsoddin, Forouzandeh, Behjat
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container_title IEEE journal of selected topics in quantum electronics
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creator Dehbashi, Reza
Fathi, Davood
Mohajerzadeh, Shamsoddin
Forouzandeh, Behjat
description A new circuit model for the graphene p-n junction (PNJ) is introduced, which is based on the model proposed by Cheianov , using equivalent quantum circuit elements. Our model is similar to the transmission line circuit model for the interface of left-handed/right-handed materials in optics and microwave circuits. To better observe the negative refraction behavior, the wave transfer from one side to another side of the junction has been simulated using HSPICE, showing a collective response just at the mirror point of the signal point. We discuss the possibility of the negative refraction of the electrons in other materials. Extending our modeling procedure from the Dirac-based graphene to the Schro¿dinger-based semiconductors, we model the negative refraction of the charge carriers in the PNJ of other materials.
doi_str_mv 10.1109/JSTQE.2009.2033818
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subjects Charge carriers
Circuit simulation
Circuits
Distributed parameter circuits
Electrons
Equivalence
Fermions
Graphene
metamaterial
microwave circuit model
Microwave circuits
Mirror point
Mirrors
nanotube
negative refraction
Optical materials
Optical refraction
P-n junctions
Refraction
Schrödinger
Semiconductor materials
Semiconductors
title Equivalent Left-Handed/Right-Handed Metamaterial's Circuit Model for the Massless Dirac Fermions With Negative Refraction
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