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Efficient parallel computations of flows of arbitrary fluids for all regimes of Reynolds, Mach and Grashof numbers

M. Mulas (Department of Computational Methods for Engineering, CRS4, Center for Research, Development and Advanced Studies in Sardinia, Area of Computational Fluid Dynamics, Uta (Ca), Italy)
S. Chibbaro (Department of Computational Methods for Engineering, CRS4, Center for Research, Development and Advanced Studies in Sardinia, Area of Computational Fluid Dynamics, Uta (Ca), Italy; Dipartimento di Fisica, Università di Cagliari, and INFN, sezione di Cagliari, Cittadella Universitaria di Monserrato, Monserrato (Ca), Italy)
G. Delussu (Department of Computational Methods for Engineering, CRS4, Center for Research, Development and Advanced Studies in Sardinia, Area of Computational Fluid Dynamics, Uta (Ca), Italy)
I. Di Piazza (Department of Computational Methods for Engineering, CRS4, Center for Research, Development and Advanced Studies in Sardinia, Area of Computational Fluid Dynamics, Uta (Ca), Italy)
M. Talice (Department of Computational Methods for Engineering, CRS4, Center for Research, Development and Advanced Studies in Sardinia, Area of Computational Fluid Dynamics, Uta (Ca), Italy)

International Journal of Numerical Methods for Heat & Fluid Flow

ISSN: 0961-5539

Article publication date: 1 September 2002

650

Abstract

This paper presents a unified numerical method able to address a wide class of fluid flow problems of engineering interest. Arbitrary fluids are treated specifying totally arbitrary equations of state, either in analytical form or through look‐up tables. The most general system of the unsteady Navier–Stokes equations is integrated with a coupled implicit preconditioned method. The method can stand infinite CFL number and shows the efficiency of a quasi‐Newton method independent of the multi‐block partitioning on parallel machines. Computed test cases ranging from inviscid hydrodynamics, to natural convection loops of liquid metals, and to supersonic gasdynamics, show a solution efficiency independent of the class of fluid flow problem.

Keywords

Citation

Mulas, M., Chibbaro, S., Delussu, G., Di Piazza, I. and Talice, M. (2002), "Efficient parallel computations of flows of arbitrary fluids for all regimes of Reynolds, Mach and Grashof numbers", International Journal of Numerical Methods for Heat & Fluid Flow, Vol. 12 No. 6, pp. 637-657. https://doi.org/10.1108/09615530210438337

Publisher

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MCB UP Ltd

Copyright © 2002, MCB UP Limited

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