Prashant Jain Section Head, Advanced Reactor Engineering & Development, Nuclear Energy and Fuel Cycle Division Contact JAINPK@ORNL.GOV All Publications Oak Ridge National Laboratory's Strategic Research and Development Insights for Digital Twins Material selection and manufacturing for high-temperature heat exchangers: Review of state-of-the-art development, opportunities, and challenges High Flux Isotope Reactor Low-Enriched Uranium Conversion Overview Advanced manufacturing and digital twin technology for nuclear energy Novel designs for ejector-based systems for enhanced fluid recovery verified through CFD Simulations Fuel Conversion Efforts at the High Flux Isotope Reactor – a 2023 Status Update Air Ingress and DLOFC Studies in Scaled HTGR Geometry Using Additively Manufactured TCR Fuel Elements Thermomechanical analysis and modeling of involute-shaped fuel plates using the Cheverton–Kelley experiments for the High Flux Isotope Reactor Technical Challenges and Gaps in Integration of Advanced Sensors, Instrumentation, and Communication Technologies with Digital Twins for Nuclear Application Security by Design: A Plant Design and Component Based Approach to Technical Solutions to Insider and Outsider Threat. Digital Twins for Nuclear Power Plants and Facilities Conceptual Design of the Transformational Challenge Reactor... Coolant Channel Design for Additively Manufactured Reactor Cores UPDATES FROM THE INVOLUTE WORKING GROUP A Large Eddy Simulation Study of Flow Turbulence, Alumina Transport, and Bath Temperature Evolution in Conventional Aluminum-Smelting Cell Using OpenFOAM Transformational Challenge Reactor Design Characteristics IMPLEMENTATION OF THE ENERGY EQUATION SOLVER TO THE LATTICE BOLTZMANN METHOD-BASED CODE PRATHAM ADDITIVELY MANUFACTURED SURFACE HEAT TRANSFER ENHANCEMENTS FOR THE TRANSFORMATIONAL CHALLENGE REACTOR Experimental investigation on the coolability of nuclear reactor debris beds using seawater Analysis of Postulated Accident Scenarios for the Transformational Challenge Reactor CFD Modeling for the Transformational Challenge Reactor Preliminary Design Computational Methodology to Simulate Pyrometallurgical Processes in a Secondary Lead Furnace Computational Fluid Dynamics Simulations to Support Efficiency Improvements in Aluminum Smelting Process Flattening the Radial Temperature Profile across the Transformational Challenge Reactor Core Computational Fluid Dynamics Modeling to Simulate a Combined Reforming Process for Syngas and Hydrogen Production Pagination Current page 1 Page 2 Page 3 Next page ›› Last page Last » Key Links Curriculum Vitae Google Scholar ORCID LinkedIn Nuclear Energy and Fuel Cycle Division Organizations Fusion and Fission Energy and Science Directorate Nuclear Energy and Fuel Cycle Division Advanced Reactor Engineering and Development Section
Research Highlight StarCCM+ CFD model used to support low flow qualification of the HFIR HB-1 beam tube
