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configurations, flow channels, electrodes, ion exchange membranes, and catalysts. • Conduct CFD and electrochemical simulations to optimize fluid flow, heat transfer, and current distribution within
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, calibration, and application. Experience with computational methods including steady-state modeling, dynamic simulation, computational fluid dynamics (CFD) to support system design and performance optimization
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process simulation and optimization using tools such as Aspen HYSYS. - Conduct CFD simulations to optimize membrane module design. - Develop and improve experimental and modeling workflows
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geometries and material configurations, (ii) optimization of material choices and manufacturing processes, (iii) mechanical characterization of the built propellers. The PhD researcher will interact with
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National Aeronautics and Space Administration (NASA) | Fields Landing, California | United States | 19 days ago
and aerodynamics through the use of comprehensive analysis, high-order computational fluid dynamics (CFD), and direct numerical simulation (DNS) tools. The postdoctoral researcher will work with CAMRAD
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previous work to channel flows, both with and without wall roughness. The research will focus on, firstly, optimal synchronisation of minimal unit turbulence (MUT), leveraging the simplified dynamics in MUT
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breakwaters under varied sea conditions. 2. CFD and Finite Element Modeling Perform Computational Fluid Dynamics (CFD) simulations to optimize the design and performance of floating breakwaters. Develop finite