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9780470666449

Nonlinear Finite Element Analysis of Solids and Structures

by ; ; ;
  • ISBN13:

    9780470666449

  • ISBN10:

    0470666447

  • Edition: 2nd
  • Format: Hardcover
  • Copyright: 2012-09-04
  • Publisher: Wiley
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Summary

Built upon the two original books by Mike Crisfield and their own lecture notes, renowned scientist René de Borst and his team offer a thoroughly updated yet condensed edition that retains and builds upon the excellent reputation and appeal amongst students and engineers alike for which Crisfield's first edition is acclaimed. Together with numerous additions and updates, the new authors have retained the core content of the original publication, while bringing an improved focus on new developments and ideas. This edition offers the latest insights in non-linear finite element technology, including non-linear solution strategies, computational plasticity, damage mechanics, time-dependent effects, hyperelasticity and large-strain elasto-plasticity. The authors' integrated and consistent style and unrivalled engineering approach assures this book's unique position within the computational mechanics literature. Key features: Combines the two previous volumes into one heavily revised text with obsolete material removed, an improved layout and updated references and notations Extensive new material on more recent developments in computational mechanics Easily readable, engineering oriented, with no more details in the main text than necessary to understand the concepts. Pseudo-code throughout makes the link between theory and algorithms, and the actual implementation. Accompanied by a website (www.wiley.com/go/deborst) with a Python code, based on the pseudo-code within the book and suitable for solving small-size problems. Non-linear Finite Element Analysis of Solids and Structures, 2nd Edition is an essential reference for practising engineers and researchers that can also be used as a text for undergraduate and graduate students within computational mechanics.

Author Biography

Mike Crisfield (deceased), Imperial College, London; René de Borst, Joris Remmers & Clemens Verhoosel, TU Eindhoven, Netherlands

Professor Mike Crisfield (deceased) joined the Transport & Road Research Laboratory (TRRL) in 1971, where he rose to the rank of Deputy Chief Scientific Officer. In 1989 he was appointed as first holder of the FEA Chair in Computational Mechanics in the aeronautics department at Imperial College, London, the department that had pioneered FEA in the 1950s and 1960s. Shortly before he died, a list of the most cited engineering researchers in the UK was published included Mike in the top 20, and he received an IACM Research Achievement Award in recognition of his extraordinary achievements in the field of non-linear computational mechanics. An eminent researcher and a scholar, he was reputed as an innovative thinker who adopted a 'hands-on' approach.

René de Borst was appointed Dean and Distinguished University Professor of the Faculty of Mechanical Engineering of TU Eindhoven in May 2007 after a long tenure as Professor and deputy Dean at TU Delft. He is Editor for the International Journal for Numerical Methods in Engineering and International Journal for Numerical and Analytical Methods in Geomechanics and Editor for the Encyclopedia of Computational Mechanics. His many awards and the outstanding assessment of his work by the scientific community attest to his reputation as a world leading scientist and researcher within the field of computational mechanics.

Joris Remmers is an assistant professor within René de Borst's group at TU Eindhoven.

Clemens Verhoosel is an assistant professor within René de Borst's group at TU Eindhoven.

Table of Contents

Basic Concepts and Solution Techniquesp. 21
Preliminariesp. 23
A simple example of non-linear behaviourp. 23
A review of concepts from linear algebrap. 25
Vectors and tensorsp. 32
Stress and strain tensorsp. 36
Elasticityp. 42
The PYFEM finite element library 44 Bibliographyp. 48
Non-linear finite element analysisp. 49
Equilibrium and virtual workp. 49
Spatial discretisation by finite elementsp. 51
PyFEM: Shape function utilitiesp. 55
Incremental-iterative analysisp. 59
Load vs displacement controlp. 68
PyFEM: A linear finite element code with displacement control 71 Bibliographyp. 80
Geometrically non-linear analysisp. 81
Truss elementsp. 82
Total Lagrange formulationp. 85
Updated Lagrange formulationp. 88
Corotational formulationp. 89
PyFEM: The shallow truss problemp. 94
Stress and deformation measures in continuap. 103
Geometrically non-linear formulation of continuum elementsp. 109
Total and Updated Lagrange formulationsp. 109
Corotational formulationp. 113
Linear buckling analysisp. 117
PyFEM: A geometrically non-linear continuum element 119 Bibliographyp. 127
Solution techniques in quasi-static analysisp. 129
Line searches 129 2 Contents
Path-following or arc-length methodsp. 132
PYFEM: Implementation of Riks’ arc-length solverp. 140
Stability and uniqueness in discretised systemsp. 145
Stability of a discrete systemp. 145
Uniqueness and bifurcation in a discrete systemp. 146
Branch switchingp. 150
Load stepping and convergence criteriap. 150
Quasi-Newton methods 153 Bibliographyp. 156
Solution techniques for non-linear dynamicsp. 157
The semi-discrete equationsp. 157
Explicit time integrationp. 159
PYFEM: Implementation of an explicit solverp. 162
Implicit time integrationp. 167
The Newmark familyp. 167
The HHT _-methodp. 168
Alternative implicit methods for time integrationp. 169
Stability and accuracy in the presence of non-linearitiesp. 171
Energy-conserving algorithmsp. 175
Time step size control and element technology 178 Bibliographyp. 179
Material Non-linearitiesp. 181
Damage mechanicsp. 183
The concept of damagep. 183
Isotropic elasticity-based damagep. 185
PYFEM: A plane-strain damage modelp. 188
Stability, ellipticity, and mesh sensitivityp. 192
Stability, ellipticity, and mesh sensitivityp. 192
Mesh sensitivityp. 195
Cohesive-zone modelsp. 198
Element technology: Embedded discontinuitiesp. 203
Complex damage modelsp. 211
Anisotropic damage modelsp. 211
Microplane modelsp. 212
Crack models for concrete and other quasi-brittle materialsp. 214
Elasticity-based smeared crack modelsp. 214
Reinforcement and tension stiffeningp. 219
Regularised damage modelsp. 223
Non-local damage modelsp. 223
Gradient damage models 224 Bibliographyp. 227
Plasticity 231 Contentsp. 3
A simple slip modelp. 231
Flow theory of plasticityp. 235
Yield functionp. 235
Flow rulep. 240
Hardening behaviourp. 244
Integration of the stress-strain relationp. 250
Tangent stiffness operatorsp. 261
Multi-surface plasticityp. 264
Koiter’s generalisationp. 264
Rankine plasticity for concretep. 267
Tresca and Mohr-Coulomb plasticityp. 272
Soil plasticity: Cam-clay modelp. 279
Coupled damage-plasticity modelsp. 282
Element technology: volumetric locking 283 Bibliographyp. 289
Time-dependent material modelsp. 293
Linear visco-elasticityp. 293
One-dimensional linear visco-elasticityp. 293
Three-dimensional visco-elasticityp. 296
Algorithmic aspectsp. 297
Creep modelsp. 299
Visco-plasticityp. 301
One-dimensional visco-plasticityp. 302
Integration of the rate equationsp. 303
Perzyna visco-plasticityp. 304
Duvaut-Lions visco-plasticityp. 306
Consistency modelp. 308
Propagative or dynamic instabilitiesp. 310
Bibliographyp. 315
Structural Elementsp. 317
Beams and archesp. 319
A shallow archp. 319
Kirchhoff formulationp. 319
Including shear deformation: Timoshenko beamp. 326
PYFEM: A Kirchhoff beam elementp. 329
Corotational elementsp. 333
Kirchhoff theoryp. 333
Timoshenko beam theoryp. 337
An isoparametric degenerate continuum 2D beam elementp. 339
An isoparametric degenerate continuum 3D beam elementp. 344
Bibliographyp. 352
Plates and shellsp. 355
Contents
Shallow-shell formulationsp. 356
An isoparametric degenerate continuum shell elementp. 363
Solid-like shell elementsp. 368
Shell plasticity: Ilyushin’s criterionp. 369
Bibliographyp. 373
Large Strainsp. 375
Hyperelasticityp. 377
More continuum mechanicsp. 377
Momentum balance and stress tensorsp. 377
Objective stress ratesp. 380
Principal stretches and invariantsp. 384
Strain-energy functionsp. 386
Incompressibility and near-incompressibilityp. 388
Strain energy as a function of stretch invariantsp. 390
Strain energy as a function of principal stretchesp. 394
Logarithmic extension of linear elasticity: Hencky modelp. 398
Element technologyp. 400
u/p formulationp. 401
Enhanced Assumed Strain elementsp. 404
F-bar approachp. 406
Corotational approachp. 407
Bibliographyp. 409
Large-strain elastoplasticityp. 411
Eulerian formulationsp. 412
Multiplicative elastoplasticityp. 417
Multiplicative elastoplasticity vs rate formulationsp. 421
Integration of the rate equationsp. 424
Exponential return-mapping algorithmsp. 428
Bibliographyp. 432
Advanced Discretisation Conceptsp. 435
Interfaces and discontinuitiesp. 437
Interface elementsp. 437
Discontinuous Galerkin methods 446 Bibliographyp. 450
Meshless and partition-of-unity methodsp. 451
Meshless methodsp. 452
The element-free Galerkin methodp. 452
Application to fracturep. 456
Higher-order damage mechanics 458 Contentsp. 5
Volumetric lockingp. 460
Partition-of-unity approachesp. 461
Application to fracturep. 465
Extension to large deformationsp. 470
Dynamic fracturep. 476
Weak discontinuitiesp. 479
Bibliographyp. 480
Isogeometric finite element analysisp. 483
Basis functions in computer aided geometric designp. 483
Univariate B-splinesp. 484
Univariate non-uniform rational B-splinesp. 487
Multivariate B-splines and NURBS patchesp. 488
T-splinesp. 490
Isogeometric finite elementsp. 493
B'ezier element representationp. 493
B'ezier extractionp. 495
PYFEM: Shape functions for isogeometric analysisp. 497
Isogeometric analysis in non-linear solid mechanicsp. 500
Design-through-analysis of shell structuresp. 500
Higher-order damage modelsp. 505
Cohesive-zone modelsp. 510
Bibliographyp. 518
Table of Contents provided by Publisher. All Rights Reserved.

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