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Alex Zunger
Researcher at University of Colorado Boulder
Publications - 838
Citations - 85746
Alex Zunger is an academic researcher from University of Colorado Boulder. The author has contributed to research in topics: Band gap & Electronic structure. The author has an hindex of 128, co-authored 826 publications receiving 78798 citations. Previous affiliations of Alex Zunger include Tel Aviv University & University of Wisconsin-Madison.
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Uncovering and tailoring hidden Rashba spin-orbit splitting in centrosymmetric crystals.
TL;DR: It is demonstrated that the spin splitting in the R-2 effect is enforced by specific symmetries, such as non-symmorphic symmetry in the present example, which ensures that the pertinent spin wavefunctions segregate spatially on just one of the two inversion-partner sectors and thus avoid compensation.
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Band or Polaron: The Hole Conduction Mechanism in the p-Type Spinel Rh2ZnO4
Arpun R. Nagaraja,Nicola H. Perry,Thomas O. Mason,Yang Tang,Matthew Grayson,Tula R. Paudel,Stephan Lany,Alex Zunger +7 more
TL;DR: In this paper, the authors discuss the traditional vs. new methodologies of determining the type of conduction mechanism at play, namely localized polaronic vs. band-like transport.
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Strain energy and stability of Si-Ge compounds, alloys, and superlattices
James E. Bernard,Alex Zunger +1 more
TL;DR: The model is applied to the study of larger superlattices than are amenable to first-principles treatment, revealing trends in constituent strain energies, interfacial ``strain-relief'' relaxation energies, and interfacial chemical energies.
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A molecular calculation of electronic properties of layered crystals. II. Periodic small cluster calculation for graphite and boron nitride
TL;DR: In this paper, small (18-32 atoms) periodic clusters of two-dimensional hexagonal graphite and boron nitride are shown to represent high-symmetry points in the Brillouin zone of the infinite crystal.
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Identifying the minimum-energy atomic configuration on a lattice : Lamarckian twist on Darwinian evolution
Mayeul d'Avezac,Alex Zunger +1 more
TL;DR: In this paper, the authors examined how the two different mechanisms proposed historically for biological evolution compare for the determination of crystal structures from random initial lattice configurations, and showed that the minimum energy configurations of a binary alloy in the full $0.1$ concentration range can be found much faster if the conventional Darwinian genetic progression (mating configurations and letting the lowest energy (fittest) offspring survive) is allowed to experience Lamarckian-style fitness improvements during its lifetime.