Damage Mechanics in Engineering Materials
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Table of contents
- Table of contentsvii
- Forewordv
- PART I: DAMAGE MECHANICS1
- Chapter 1. Continuum Damage Mechanics of Composites. Towards a Unified Approach3
- Chapter 2. Space of Damage Conjugate Force and Damage Potential of Elastic-Plastic-Damage Materials27
- Chapter 3. Kinematics of Large Elastoplastic Damage Deformation45
- Chapter 4. Scale and Boundary Conditions Effects in Elasticity and Damage Mechanics of Random Compos65
- Chapter 5. The Effect of Fiber Bridging on Self-Similar Crack Growth: A Penny-shaped Crack Evolvemen81
- Chapter 6. Crack-tip singularity in damaged materials95
- Chapter 7. Micromechanics of Fatigue Crack Initiation of Single Crystal under Plane Strain115
- Chapter 8. The sliding crack model revisited125
- Chapter 9. Damage evolution rule for multiaxial variable loading145
- Chapter 10. A Micromechanical Damage Model of Fiber Composites with Nonlinear Interface: Bulk, Tensi163
- PART II: LOCALIZATION AND DAMAGE181
- Chapter 11. Dynamic localized fracture in inelastic solids183
- Chapter 12. Macromechanical Description of Micro-Shear Banding203
- Chapter 13. Some Remarks on Gradient and Nonlocal Damage Theories223
- Chapter 14. Catastrophic slip phenomena in crystalline materials237
- PART III: DAMAGE IN BRITTLE MATERIALS257
- Chapter 15. A comparative study of isotropic and anisotropic descriptions of damage in concrete stru259
- Chapter 16. Advanced Thermomechanical Constitutive Models for Airfield Concrete Pavement under High275
- Chapter 17. Mechanical behavior of thin-film coating/substrate systems under nanoindentation287
- Chapter 18. On the Continuum Description of Damage in Fiber-Reinforced Composites303
- Chapter 19. A mesocrack damage and friction coupled model for brittle materials321
- Chapter 20. Anisotropic damage model for the triaxial creep behaviour of plain concrete337
- Chapter 21. Damage and fracture modeling of 4D CC composites351
- PART IV: DAMAGE IN METALS AND METAL MATRIX COMPOSITES369
- Chapter 22. Prediction of damaged behavior and failure of a metal matrix composite using a multiscal371
- Chapter 23. Effect of Microstructural Architecture on Flow/Damage Surfaces for Metal Matrix Composit385
- Chapter 24. Calibration and validation of an anisotropic elasto-plastic damage model for sheet metal401
- Chapter 25. Modeling of Oxidation and its Effect on the Crack Growth Resistance of Titanium Alloys421
- Chapter 26. A first step toward functionally graded plasticity in porous materials441
- PART V: COMPUTATIONAL DAMAGE MODELS457
- Chapter 27. Modeling of Delamination Using a Layerwise Element with Enhanced Strains459
- Chapter 28. A Computational Damage Mechanics Approach for Laminates: Identification and Comparison w481
- PART VI: DAMAGE IN POLYMERS AND ELASTOMERS501
- Chapter 29. Damaged hyperelastic solid with an induced volume variation. Effect of loading paths503
- Chapter 30. A Micromechanics Approach to Predict Strength & Stiffness of Polymer Matrix Composites523
- Author Index543
This book contains thirty peer-reviewed papers that are based on the presentations made at the symposium on "Damage Mechanics in Engineering Materials" on the occasion of the Joint ASME/ASCE/SES Mechanics Conference (McNU97), held in Evanston, Illinois, June 28-July 2, 1997. The key area of discussion was on the constitutive modeling of damage mechanics in engineering materials encompassing the following topics: macromechanics/micromechanical constitutive modeling, experimental procedures, numerical modeling, inelastic behavior, interfaces, damage, fracture, failure, computational methods.
The book is divided into six parts:
Study of damage mechanics. Localization and damage. Damage in brittle materials. Damage in metals and metal matrix composites. Computational aspects of damage models. Damage in polymers and elastomers.
The book is divided into six parts:
Study of damage mechanics. Localization and damage. Damage in brittle materials. Damage in metals and metal matrix composites. Computational aspects of damage models. Damage in polymers and elastomers.