Deformation and Fracture in Materials

PART 1 Mechanics and Physics of Deformation and Fracture in Materials Chapter 1 Theoretical Approaches in Deformation and Fracture of Materials Chapter 2 The Physics of Deformation Behavior in Nanoindentation Studies of Materials Chapter 3 Applications of Machine Learning Techniques to Predict Behaviour of Materials PART 2 Experimental Methods to Study Mechanics and Physics of Deformation and Fracture in Materials Chapter 4 Deformation and Fracture of Metals: Experimental Methods and Challenges Chapter 5 Deformation and Fracture of Ceramic Materials: Experimental Methods and Challenges Chapter 6 Deformation and Fracture of Polymeric Materials: Experimental Methods and Challenges Chapter 7 Deformation and Fracture of Composite Materials: Experimental Methods and Challenges PART 3 Recent Advances in Modeling of Deformation and Fracture in Materials Chapter 8 Path-Independent Integrals and Their Applications in Fracture and Defect Mechanics Chapter 9 Modeling Crack Growth in Materials Using Finite Element Method Chapter 10 Nanoindentation Modeling of Materials Using Finite Element Method Chapter 11 FEM-Based Computational Studies on Impression Creep Behavior of Boron-Added P91 Steel Chapter 12 Channelling Deformation-Induced Electric Field Property of Polymer Hybrid Nanocomposite for Energy Harvesting Chapter 13 Atomistic Modelling and Molecular Dynamics Simulation for Elastic Deformation in Nanocomposites Chapter 14 Stress-Strain Response of Graphene-Reinforced Aluminium Composite: A Molecular Dynamics Study PART 4 Progress in Experimental Approaches Chapter 15 Physics of Deformation Behaviour in Nickel-Based Super Alloys Chapter 16 Nanoindentation Studies on Physics of Deformation at Microstructural Length Scale of Metals Chapter 17 Experimental Techniques to Study Physics of Deformation behavior in Glass at Microstructural Length Scale PART 5 Future Research Directions Chapter 18 Future Directions: Applications of Artificial Intelligence in Material Deformation and Fracture