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Douglas J. Doren

Researcher at University of Delaware

Publications -  76
Citations -  3514

Douglas J. Doren is an academic researcher from University of Delaware. The author has contributed to research in topics: Density functional theory & Ab initio. The author has an hindex of 33, co-authored 76 publications receiving 3289 citations. Previous affiliations of Douglas J. Doren include California Institute of Technology.

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Neural network models of potential energy surfaces

TL;DR: In this article, the authors used feed-forward neural networks to model global properties of potential energy surfaces from information available at a limited number of configurations, and several fits are made to data derived from an empirical potential model of CO adsorbed on Ni(111).
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Adsorption of water on Si(100)-(2×1): A study with density functional theory

TL;DR: In this article, the authors investigated the adsorption of water on the Si(100)-(2×1) surface using density functional theory and cluster models of the surface and analyzed the orbital and electrostatic interactions that determine the adsorbate and transition state geometries.
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Development of a ReaxFF Reactive Force Field for Glycine and Application to Solvent Effect and Tautomerization

TL;DR: The ReaxFF potential developed in this work provides an accurate description of proton transfer in glycine and thus provides a useful methodology for simulating protonTransfer reactions in organic molecules in the aqueous environment.
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Band gap tailoring of Nd3+-doped TiO2 nanoparticles

TL;DR: In this article, Nd3+-doped TiO2 nanoparticles were synthesized by chemical vapor deposition in order to tailor the band gap of the nanoparticles, which was measured by ultraviolet-visible light absorption experiments.
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Development and Validation of a ReaxFF Reactive Force Field for Cu Cation/Water Interactions and Copper Metal/Metal Oxide/Metal Hydroxide Condensed Phases

TL;DR: The ReaxFF reactive force field framework is extended to Cu/O/H interactions and it is believed that this force field provides a computationally convenient method for studying the solution and surface chemistry of metal cations and metal oxides and, as such, has applications for studying protein/metal cation complexes, pH-dependent crystal growth/dissolution, and surface catalysis.