Mechanics, Turbulence, Heat transfer, Thermodynamics and Computer simulation are his primary areas of study. Natural convection, Nusselt number, Flow, Laminar flow and Fluid dynamics are subfields of Mechanics in which his conducts study. His Turbulence study integrates concerns from other disciplines, such as Computational fluid dynamics and Classical mechanics.
His Heat transfer research includes elements of Mechanical engineering, Thermal, Parabolic trough and Boundary value problem. In general Thermodynamics, his work in Convection, Exergy and Molten salt is often linked to Computer data storage linking many areas of study. His studies in Computer simulation integrate themes in fields like Geotechnical engineering and Buoyancy.
Assensi Oliva mainly focuses on Mechanics, Turbulence, Computer simulation, Materials science and Heat transfer. His Mechanics study frequently draws connections between related disciplines such as Thermodynamics. His Turbulence study combines topics from a wide range of disciplines, such as Computational fluid dynamics, Convection, Laminar flow and Classical mechanics.
His Computational fluid dynamics study incorporates themes from Mathematical optimization, Simulation and Applied mathematics. Assensi Oliva has included themes like Thermal, Mechanical engineering, Heat exchanger, Discretization and Finite volume method in his Computer simulation study. His biological study spans a wide range of topics, including Fluid dynamics, Thermal conduction, Boundary value problem and Parabolic trough.
His main research concerns Mechanics, Turbulence, Materials science, Reynolds number and Direct numerical simulation. The various areas that Assensi Oliva examines in his Mechanics study include Work and Surface tension. The Work study combines topics in areas such as Mechanical engineering, Dispersion and Stochastic modelling.
His Turbulence research is multidisciplinary, incorporating elements of Flow, Navier–Stokes equations, Statistical physics and Fluid dynamics. His research in Reynolds number tackles topics such as Applied mathematics which are related to areas like Numerical analysis, Compressibility, Car model and Coupling. His Direct numerical simulation research includes themes of Discretization, Non-Newtonian fluid and Adaptive mesh refinement.
His primary areas of study are Mechanics, Direct numerical simulation, Turbulence, Reynolds number and Context. Assensi Oliva integrates Mechanics and Materials science in his research. His study explores the link between Direct numerical simulation and topics such as Discretization that cross with problems in Adaptive mesh refinement, Morton number and Eötvös number.
His studies deal with areas such as Flow and Statistical physics as well as Turbulence. Assensi Oliva has researched Reynolds number in several fields, including Applied mathematics, Newtonian fluid and Supercritical fluid. As part of the same scientific family, Assensi Oliva usually focuses on Mass flow rate, concentrating on Computer simulation and intersecting with Thermal, Parabolic trough, Stability and Numerical analysis.
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Numerical simulation of a latent heat thermal energy storage system with enhanced heat conduction
M. Costa;D. Buddhi;A. Oliva.
Energy Conversion and Management (1998)
Heat transfer analysis and numerical simulation of a parabolic trough solar collector
A.A. Hachicha;I. Rodríguez;R. Capdevila;A. Oliva.
Applied Energy (2013)
Three-dimensional numerical simulation of convection and radiation in a differentially heated cavity using the discrete ordinates method
G. Colomer;M. Costa;R. Cònsul;A. Oliva.
International Journal of Heat and Mass Transfer (2004)
Direct numerical simulation of the flow over a sphere at Re = 3700
Ivette Rodriguez;Ricard Borell;Oriol Lehmkuhl;Carlos D. Perez Segarra.
Journal of Fluid Mechanics (2011)
Parametric studies on automotive radiators
C. Oliet;A. Oliva;J. Castro;C.D. Pérez-Segarra.
Applied Thermal Engineering (2007)
Direct numerical simulations of two- and three-dimensional turbulent natural convection flows in a differentially heated cavity of aspect ratio 4
F. X. Trias;M. Soria;A. Oliva;C. D. Pérez-Segarra.
Journal of Fluid Mechanics (2007)
Verification of Finite Volume Computations on Steady-State Fluid Flow and Heat Transfer
J. Cadafalch;C. D. Pérez-Segarra;R. Cònsul;A. Oliva.
Journal of Fluids Engineering-transactions of The Asme (2002)
Direct numerical simulation of a differentially heated cavity of aspect ratio 4 with Rayleigh numbers up to 1011 – Part I: Numerical methods and time-averaged flow
F.X. Trias;A. Gorobets;M. Soria;A. Oliva.
International Journal of Heat and Mass Transfer (2010)
TermoFluids: A new Parallel unstructured CFD code for the simulation of turbulent industrial problems on low cost PC Cluster
O. Lehmkuhl;C.D. Perez-Segarra;R. Borrell;M. Soria.
Numerical simulation of capillary-tube expansion devices
F. Escanes;C.D. Pérez-Segarra;A. Oliva.
International Journal of Refrigeration-revue Internationale Du Froid (1995)
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