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Mécanique des solides déformables: formulation théorique et resolution numérique par éléments Finis

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ISBN-10: 9048123305

ISBN-13: 9789048123308

Edition: 2009

Authors: Adnan Ibrahimbegovic

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Description:

The main purpose of this book is to present all the ingredients for constructing the numerical models for representing the complex nonlinear behavior of structures and their components, which are represented as deformable solid bodies. Nonetheless, the book will also prove useful for those mostly interested in linear problems of mechanics, since the sure way to obtain a sound theoretical formulation of a linear problem goes through the consistent linearization of the more general nonlinear problem.The original French edition published by Hermes Science - Lavoisier Paris in 2006 was nominated for the Roberval Award for University Textbooks in French.
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Book details

Copyright year: 2009
Publisher: Springer Netherlands
Publication date: 6/2/2009
Binding: Hardcover
Pages: 574
Size: 6.10" wide x 9.25" long x 1.25" tall
Weight: 4.884
Language: English

Foreword
Preface
Acknowledgements
Introduction
Motivation and objectives
Outline of the main topics
Further studies recommendations
Summary of main notations
Boundary value problem in linear and nonlinear elasticity
Boundary value problem in elasticity with small displacement gradients
Domain and boundary conditions
Strong form of boundary value problem in 1D elasticity
Weak from of boundary value problem in 1D elasticity and the principle of virtual work
Variational formulation of boundary value problem in 1D elasticity and principle of minimum potential energy
Finite element solution of boundary value problems in 1D linear and nonlinear elasticity
Qualitative methods of functional analysis for solution existence and uniqueness
Approximate solution construction by Galerkin, Ritz and finite element methods
Approximation error and convergence of finite element method
Solving a system of linear algebraic equations by Gauss elimination method
Solving a system of nonlinear algebraic equations by incremental analysis
Solving a system of nonlinear algebraic equations by Newton's iterative method
Implementation of finite element method in 1D boundary value problems
Local or elementary description
Consistence of finite element approximation
Equivalent nodal external load vector
Higher order finite elements
Role of numerical integration
Finite element assembly procedure
Boundary value problems in 2D and 3D elasticity
Tensor, index and matrix notations
Strong from of a boundary value problem in 2D and 3D elasticity
Weak form of boundary value problem in 2D and 3D elasticity
Detailed aspects of the finite element method
Isoparametric finite elements
Order of numerical integration
The patch test
Hu-Washizu (mixed) variational principle and method of incompatible modes
Hu-Washizu (mixed) variational principle and assumed strain method for quasi-incompressible behavior
Inelastic behavior at small strains
Boundary value problem in thermomechanics
Rigid conductor and heat equation
Numerical solution by time-integration scheme for heat transfer problem
Thermomechanical coupling in elasticity
Thermodynamics potentials in elasticity
Thermodynamics of inelastic behavior: constitutive models with internal variables
Internal variables in viscoelasticity
Internal variables in viscoelasticity
1D models of perfect plasticity and plasticity with hardening
1D perfect plasticity
1D plasticity with isotropic hardening
Boundary value problem for 1D plasticity
3D plasticity
Standard format of 3D plasticity model: Prandtl-Reuss equations
J2 plasticity model with von Mises plasticity criterion
Implicit backward Euler scheme and operator split for von Mises plasticity
Finite element numerical implementation in 3D plasticity
Refined models of 3D plasticity
Nonlinear isotropic hardening
Kinematic hardening
Plasticity model dependent on rate of deformation or viscoplasticity
Multi-surface plasticity criterion
Plasticity model with nonlinear elastic response
Damage models
1D damage model
3D damage model
Refinements of 3D damage model
Isotropic damage model of Kachanov
Numerical examples: damage model combining isotropic and multisurface criteria
Coupled plasticity-damage model
Theoretical formulation of 3D coupled model
Time integration of stress for coupled plasticity-damage model
Direct stress interpolation for coupled plasticity-damage model
Large displacements and deformations
Kinematics of large displacements
Motion in large displacements
Deformation gradient
Large deformation measures
Equilibrium equations in large displacements
Strong form of equilibrium equations
Weak form of equilibrium equations
Linear elastic behavior in large displacements: Saint-Venant-Kirchhoff material model
Weak form of Saint-Venant-Kirchhoff 3D elasticity model and its consistent linearization
Numerical implementation of finite element method in large displacements elasticity
1D boundary value problem: elastic bar in large displacements
2D plane elastic membrane in large displacements
Spatial description of elasticity in large displacements
Finite element approximation of spatial description of elasticity in large displacements
Mixed variational formulation in large displacements and discrete approximations
Mixed Hu-Washizu variational principle in large displacements and method of incompatible modes
Mixed Hu-Washizu variational principle in large displacements and assumed strain methods for quasi-incompressible behavior
Constitutive models for large strains
Invariance restrictions on elastic response
Constitutive laws for large deformations in terms of principal stretches
Plasticity and viscoplasticity for large deformations
Multiplicative decomposition of deformation gradient
Perfect plasticity for large deformations
Isotropic and kinematic hardening in large deformation plasticity
Spatial description of large deformation plasticity
Numerical implementation of large deformation plasticity
Changing boundary conditions: contact problems
Unilateral 1D contact problem
Strong form of 1D elasticity in presence of unilateral contact constraint
Weak form of unilateral 1D contact problem and its finite element solution
Contact problems in 2D and 3D
Contact between two deformable bodies in 2D case
Mortar element method for contact
Numerical examples of contact problems
Refinement of contact model
Dynamics and time-integration schemes
Initial boundary value problem
Strong form of elastodynamics
Weak form of equations of motion
Finite element approximation for mass matrix
Time-integration schemes
Central difference (explicit) scheme
Trapezoidal rule or average acceleration (implicit) scheme
Mid-point (implicit) scheme and its modifications for energy conservation and energy dissipation
Mid-point (implicit) scheme for finite deformation plasticity
Contact problem and time-integration schemes
Mid-point (implicit) scheme for contact problem in dynamics
Central difference (explicit) scheme and impact problem
Thermodynamics and solution methods for coupled problems
Thermodynamics of reversible processes
Thermodynamical coupling in 1D elasticity
Thermodynamics coupling in 3D elasticity and constitutive relations
Initial-boundary value problem in thermoelasticity and operator split solution method
Weak form of initial-boundary value problem in 3D elasticity and its discrete approximation
Operator split solution method for 3D thermoelasticity
Numerical examples in thermoelasticity
Thermodynamics of irreversible processes
Thermodynamics coupling for 1D plasticity
Thermodynamics coupling in 3D plasticity
Operator split solution method for 3D thermoplasticity
Numerical example: thermodynamics coupling in 3D plasticity
Thermomechanical coupling in contact
Geometric and material instabilities
Geometric instabilities
Buckling, nonlinear instability and detection criteria
Solution methods for boundary value problem in presence of instabilities
Material instabilities
Detection criteria for material instabilities
Illustration of finite element mesh lack of objectivity for localization problems
Localization limiters
List of localization limiters
Localization limiter based on mesh-dependent softening modulus - 1D case
Localization limiter based on viscoplastic regularization - 1D case
Localization limiter based on displacement or deformation discontinuity - 1D case
Localization limiter in plasticity for massive structure
Theoretical formulation of limiter with displacement discontinuity - 2D/3D case
Numerical implementation within framework of incompatible mode method
Numerical examples for localization problems
Localization problem in large strain plasticity
Multi-scale modelling of inelastic behavior
Scale coupling for inelastic behavior in quasi-static problems
Weak coupling: nonlinear homogenization
Strong coupling micro-macro
Microstructure representation
Microstructure representation by structured mesh with isoparametric finite elements
Microstructure representation by structured mesh with incompatible mode elements
Microstructure representation with uncertain geometry and probabilistic interpretation of size effect for dominant failure mechanism
Conclusions and remarks on current research works
References
Index