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Justin B. Hooper

Researcher at University of Utah

Publications -  32
Citations -  1133

Justin B. Hooper is an academic researcher from University of Utah. The author has contributed to research in topics: Dicyanamide & Ionic liquid. The author has an hindex of 16, co-authored 32 publications receiving 947 citations. Previous affiliations of Justin B. Hooper include University of Colorado Boulder.

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Chiral heliconical ground state of nanoscale pitch in a nematic liquid crystal of achiral molecular dimers

TL;DR: Absence of a lamellar X-ray reflection at wavevector q ∼ 2π/d or its harmonics in synchrotron-based scattering experiments indicates that this periodic structure is achieved with no detectable associated modulation of the electron density, and thus has nematic rather than smectic molecular ordering.
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Li+ Transport and Mechanical Properties of Model Solid Electrolyte Interphases (SEI): Insight from Atomistic Molecular Dynamics Simulations

TL;DR: In this paper, the authors investigated the properties of two model solid electrolyte interphase (SEI) components using molecular dynamics simulations and a hybrid MD-Monte Carlo (MC) scheme.
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Understanding transport mechanisms in ionic liquid/carbonate solvent electrolyte blends

TL;DR: Though the individual correlations among different ion types exhibit a clear concentration dependence, their net effect is nearly constant throughout the entire concentration range, resulting in approximately equal transport and transference numbers, despite a monitored cross-over from carbonate-based lithium coordination to a TFSI-based ion coordination.
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Density functional theory of simple polymers in a slit pore. I. Theory and efficient algorithm

TL;DR: In this article, a methodology is developed which permits the simulation to be taken out of the iterative loop, and the calculation of the self-consistent, medium-induced potential, or field, is decoupled from the simulation.
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Shock-induced transformations in crystalline RDX: A uniaxial constant-stress Hugoniostat molecular dynamics simulation study

TL;DR: It is demonstrated that the Hugoniostat method is suitable for studying shock compression in atomic-scale models of energetic materials without the necessity to consider the extremely large simulation cells required for an explicit shock wave simulation.