Jaron T Krogel Research Staff Contact 865.576.6204 | krogeljt@ornl.gov All Publications Software stewardship and advancement of a high-performance computing scientific application: QMCPACK Putting error bars on density functional theory Exploring interlayer coupling in the twisted bilayer PtTe2 Enhancing MnBi2Te4 Stability by Doping JARVIS-Leaderboard: a large scale benchmark of materials design methods Enhanced Twist-Averaging Technique for Magnetic Metals: Applications Using Quantum Monte Carlo Software engineering to sustain a high-performance computing scientific application: QMCPACK DFT+U and quantum Monte Carlo study of electronic and optical properties of AgNiO2 and AgNi1−xCoxO2 delafossite Predictions of delafossite-hosted honeycomb and kagome phases Stacking Faults and Topological Properties in MnBi2Te4: Reconciling Gapped and Gapless States The role of electron correlations in the electronic structure of putative Chern magnet TbMn6Sn6... Evaluation of the excitation spectra with diffusion Monte Carlo on an auxiliary bosonic ground state... Structural Stability of Graphene-Supported Pt Layers: Diffusion Monte Carlo and Density Functional Theory Calculations Emergent Magnetism with Continuous Control in the Ultrahigh-Conductivity Layered Oxide PdCoO2 Procedures for Assessing the Stability of Proposed Topological Materials Existence of La-site antisite defects in LaMO3 (M=Mn, Fe, and Co) predicted with many-body diffusion quantum Monte Carlo A Quantum Monte Carlo Study of the Structural, Energetic, and Magnetic Properties of Two-Dimensional H and T Phase VSe 2 Existence of La-site antisite defects in LaMO3(M=Mn, Fe, and Co) predicted with many-body diffusion quantum Monte Carlo Phase Transition Dynamics in a Complex Oxide Heterostructure Correlative Nanoscale Imaging of Strained hBN Spin Defects Origin of metal-insulator transitions in correlated perovskite metals Surrogate Hessian accelerated structural optimization for stochastic electronic structure theories High Accuracy Transition Metal Effective Cores for the Many-Body Diffusion Monte Carlo Method A combined first principles study of the structural, magnetic, and phonon properties of monolayer CrI3 CrI3 revisited with a many-body ab initio theoretical approach Pagination Current page 1 Page 2 Page 3 Next page ›› Last page Last » Key Links ORCID Organizations Physical Sciences Directorate Materials Science and Technology Division Materials Theory, Modeling and Simulation Section Materials Theory Group
