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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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Electronic structure of BAs and boride III-V alloys

TL;DR: In this article, it was shown that the valence-band maximum (VBM) of BAs is significantly higher than that of AlAs, despite the much smaller bond length of bAs, and the VBM of GaAs is only slightly higher than in BAs.
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The electronic consequences of multivalent elements in inorganic solar absorbers: Multivalency of Sn in Cu2ZnSnS4

TL;DR: In this article, the correlation between multivalency and the electronic properties of new functional semiconductor materials was investigated, and the performance of such materials may be affected by those skeleton elements transitioning from one oxidation state to another in response to charge-altering perturbations such as illumination or doping.
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New approach for solving the density-functional self-consistent-field problem

TL;DR: In this article, a variational approach for obtaining the minimum of the density-functional total energy is developed by the application of the variational method to the effective potential rather than to wave functions.
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Ground- and excited-state properties of LiF in the local-density formalism

TL;DR: In this paper, a self-consistent numerical basis set (non-muffin-tin) linear-combination-of-atomic-orbitals (LDF) method was used to model the ionic ionic solid LiF.
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Theoretical Prediction and Experimental Realization of New Stable Inorganic Materials Using the Inverse Design Approach

TL;DR: Experimental synthesis of TaCoSn, the first ternary in the Ta-Co-Sn system, confirmed its predicted zincblende-derived crystal structure and demonstrated how discovery of new materials can be accelerated by the combination of high-throughput theoretical and experimental methods.