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==Single Discretization Method==
[[MSC.Software's MARC, NASTRAN, Dytran]], [[Abaqus]], [[ADINA]]<ref>{{cite web |url=http://www.adina.com/multiphysics.shtml |title=ADINA Multiphysics}}</ref>, [[ANSYS]] Multiphysics<ref>{{cite web |url=http://www.ansys.com/Products/multiphysics.asp |title=ANSYS Multiphysics |publisher=ANSYS, Inc |accessdate=2008-10-30}}</ref> [[CFD-ACE+]], [[CFD-FASTRAN]], [[COMSOL Multiphysics]] <ref>{{cite web |url=http://www.comsol.com/ |title=COMSOL Multiphysics |publisher=COMSOL, Inc. |accessdate=2009-05-30}}</ref>, [[Flexpde|FlexPDE]], [[LS-DYNA]], [[NEi Nastran]], [[Idc-sac simulation]] and OOFELIE<ref>{{cite web |url=http://www.samcef.com/en/pss.php?ID=69&W=products |title=OOFELIE |accessdate=2008-10-30 |publisher= Samtech Group}}</ref> are some examples of commercially available software packages for simulating multiphysics models. These software packages mainly rely on the [[Finite Element Method]] or similar commonplace numerical methods for simulating coupled physics: thermal stress, electromechanical interaction, fluid structure interaction (FSI), fluid flow with heat transport and chemical reactions, electromagnetic fluids (magnetohydrodynamics or plasma), electromagnetically induced heating. In many cases, to get accurate results, it is important to include mutual dependencies where the material properties significant for one field (such as the electric field) vary with the value of another field (such as temperature) and vice versa.
==Multiple Discretization Methods==
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