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Eugene J. Mele

Researcher at University of Pennsylvania

Publications -  225
Citations -  29446

Eugene J. Mele is an academic researcher from University of Pennsylvania. The author has contributed to research in topics: Graphene & Topological insulator. The author has an hindex of 50, co-authored 206 publications receiving 26007 citations. Previous affiliations of Eugene J. Mele include Loughborough University & Xerox.

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Surface reconstruction and vibrational excitations of Si(001).

TL;DR: The analysis of the vibrational excitations of the surface provides a microscopic explanation for the driving forces that lead to higher-order reconstructions, namely, p(2 x 2) and c(4x 2) structures, and provides an insight into the question of the multiplicity of periodicities that are observed on this surface, even at low temperatures.
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Plasmon Reflections by Topological Electronic Boundaries in Bilayer Graphene

TL;DR: In this article, the authors show that the strong coupling of domain walls to surface plasmons observed in infrared nanoimaging experiments is due to topological chiral modes confined to the walls, which leads to plasmon reflection by the domain walls.
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Broken symmetries in scanning tunneling images of carbon nanotubes

TL;DR: In this article, the authors present a theory of these images that relates these anisotropies to the off-diagonal correlations in the single-particle density matrix, and allows one to extract these correlations from the observed images.
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Semiclassical Boltzmann transport theory for multi-Weyl semimetals

TL;DR: In this paper, the authors study the dc conductivity as a function of carrier density and temperature in multi-Weyl semimetals (m-WSMs), a new type of Weyl semi-metals that have linear dispersion along one symmetry direction but anisotropic nonlinear dispersion in two transverse directions with a topological charge larger than one.
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Spin texture on the Fermi surface of tensile-strained HgTe

TL;DR: In this article, the spin texture of tensile-strained HgTe has been shown to be locked in a 2D plane on the Fermi surface with different winding numbers on either end.