Finite element method

Human temporomandibular joint disc cartilage as a poroelastic material

Mechanical Engineering / Biomedical Engineering / Temporomandibular Joint / Experience Design / Finite element method / Elasticity / Humans / Porosity / Computer Simulation / Clinical Biomechanics / Compressive Strength / Qualitative Study / Risk factors / Motion / Energy Dissipation / Mechanical Stress / Temporomandibular joint disorder (TMJD or TMD) / Finite Element Model / Load distribution / Articular Cartilage Wear / Risk Factors / Dynamic Loading / Energy Transfer / Material Model / Weight Bearing / Elasticity / Humans / Porosity / Computer Simulation / Clinical Biomechanics / Compressive Strength / Qualitative Study / Risk factors / Motion / Energy Dissipation / Mechanical Stress / Temporomandibular joint disorder (TMJD or TMD) / Finite Element Model / Load distribution / Articular Cartilage Wear / Risk Factors / Dynamic Loading / Energy Transfer / Material Model / Weight Bearing

MPSalsa A Finite Element Computer Program for Reacting Flow Problems Part 2 - User\'s Guide

Kinetics / Heat Transfer / Inexact Newton-like Method / Finite element method / Heat Transport / Parallel Processing / Finite Element / Boundary Conditions / Laminar Flow / Fluid flow / Chemical Reactions / Computer Program / Three Dimensional / Chemical Reaction / Parallel Computer / Boundary Condition / Low Mach Number / Incompressible Flow / Informing Science / Department of Energy / Parallel Processing / Finite Element / Boundary Conditions / Laminar Flow / Fluid flow / Chemical Reactions / Computer Program / Three Dimensional / Chemical Reaction / Parallel Computer / Boundary Condition / Low Mach Number / Incompressible Flow / Informing Science / Department of Energy
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