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J. P. Carbotte

Researcher at McMaster University

Publications -  557
Citations -  12667

J. P. Carbotte is an academic researcher from McMaster University. The author has contributed to research in topics: Superconductivity & Optical conductivity. The author has an hindex of 47, co-authored 554 publications receiving 11748 citations. Previous affiliations of J. P. Carbotte include McGill University & University of Alberta.

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Properties of boson-exchange superconductors

TL;DR: In this article, the authors review some of the important successes achieved by Eliashberg theory in describing the observed superconducting properties of many conventional superconductors and present approximate analytic formulas with simple correction factors for strong-coupling corrections embodied in the single parameter.
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Magneto-optical conductivity in graphene

TL;DR: In particular, the lowest Landau level can be thought of as shared equally by electrons and holes, and this leads to characteristic behaviour of the magneto-optical conductivity as a function of frequency Ω for various values of the chemical potential as discussed by the authors.
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Unusual microwave response of dirac quasiparticles in graphene.

TL;DR: It is shown that microwaves are an excellent probe of their unusual dynamics and the diagonal and Hall conductivities at small Omega become independent of B but remain nonzero and show a structure associated with the lowest Landau level.
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Ac conductivity of graphene: from tight-binding model to 2 + 1-dimensional quantum electrodynamics

TL;DR: In this article, the authors consider the relationship between the tight-binding Hamiltonian of the two-dimensional honeycomb lattice of carbon atoms with nearest neighbor hopping only and the 2 + 1 dimensional Hamiltonians of quantum electrodynamics, which follows in the continuum limit.
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AC conductivity of graphene: from tight-binding model to 2+1-dimensional quantum electrodynamics

TL;DR: In this paper, the authors consider the relationship between the tight-binding Hamiltonian of the two-dimensional honeycomb lattice of carbon atoms with nearest neighbor hopping only and the 2+1 dimensional Hamiltonians of quantum electrodynamics which follows in the continuum limit and illustrate the power of such a mapping by considering the possible symmetry breaking which corresponds to the creation of a finite Dirac mass, on various optical properties.