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Roberto Car

Researcher at Princeton University

Publications -  406
Citations -  90989

Roberto Car is an academic researcher from Princeton University. The author has contributed to research in topics: Density functional theory & Ab initio. The author has an hindex of 99, co-authored 389 publications receiving 76681 citations. Previous affiliations of Roberto Car include International School for Advanced Studies & University of Geneva.

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Journal ArticleDOI

Theoretical Studies of [FeFe]-Hydrogenase: Infrared Fingerprints of the Dithiol-Bridging Ligand in the Active Site

TL;DR: The authors' analysis shows distinct spectral features associated with the dithiol-bridging NH mode for compounds having a DTN bridge, which, however, would have been obscured by the H2O vibrations in existing measurements, but if indeed nitrogen is present, a combination of selective deuteration and chemical inactivation with CO would create a unique signature in an accessible region of the infrared spectrum, whose position and intensity are predicted.
Book ChapterDOI

Kohn-Sham Master Equation Approach to Transport Through Single Molecules

TL;DR: In this article, an alternative formulation that can be seen as a generalization of the Boltzmann transport equation (BTE) to the fully quantum mechanical case is presented. But it cannot be directly applied to systems with a finite current, because such devices are out of equilibrium.
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Influence of point defects on the electronic and topological properties of monolayer WTe 2

TL;DR: In this paper, the effect of Te vacancies and Te adatoms on the electronic properties of topological insulators was investigated and it was shown that the Te vacancies have a formation energy of 2.21 eV, while the formation energy for the Te adats is much lower with 0.72 eV.
Journal ArticleDOI

First‐principles study of Si 2p core‐level shifts at water and hydrogen covered Si(001)2×1 surfaces

TL;DR: In this article, a first-principles approach was used to study Si 2p core-level shifts at water and hydrogen covered Si(001)2×1 surfaces.
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A well-scaling natural orbital theory

TL;DR: By using “natural spin-orbitals” to describe the motion of individual electrons, solving for them together with their joint and individual probabilities of occurrence within the system, this work is able to account better for electron correlation when strong while avoiding self-interaction and maintaining the growth of computation cost at the level of Hartree–Fock theory.