Deformation and Fracture in Materials

Texte du rabat

It provides basics of deformation and fracture in materials and the current state-of-the-art on experimental and numerical/theoretical methods including data driven approach in deformation and fracture study of materials. It is aimed at researchers and graduate students in fracture mechanics, finite element methods, and materials science.

Contenu

PART 1: Mechanics and Physics of Deformation and Fracture in Materials: Theoretical Approaches. 1. Theoretical Approaches in Deformation and Fracture in Materials. 2. The Physics of Deformation behavior in Nanoindentation Studies of Materials. 3. Applications of Machine Learning Techniques to Predict the Materials Behaviour. PART 2: Experimental Methods to Study Mechanics and Physics of Deformation and Fracture in Materials. 4. Deformation and Fracture of Metals: Experimental Methods & Challenges. 5. Deformation and Fracture of Ceramic materials: Experimental Methods & Challenges. 6. Deformation and Fracture of Polymeric materials: Experimental Methods & Challenges. 7. Deformation and Fracture of Composite Materials: Experimental Methods & Challenges. PART 3: Recent Advances in Modeling of Deformation and Fracture in Materials. 8. Path-Independent Integrals and their Applications in Fracture and Defect Mechanics. 9. Modeling Crack Growth in Materials using Finite Element Method. 10. Nanoindentation Modeling of Materials using Finite Element Method. 11. FEM based Computational Studies on Impression Creep Behavior of Boron added P91 Steel. 12. Channeling Deformation Induced Electric Field Property of Polymer Hybrid Nanocomposite for Energy Harvesting. 13. Atomistic Modelling and Molecular Dynamics Simulation for Elastic Deformation in Nanocomposite. 14. Stress-strain response of Graphene reinforced aluminum composite: A molecular dynamics study. PART 4: Progress in Experimental Approaches: Case Studies. 15. Physics of Deformation Behavior in Nickel-based Super Alloys. 16. Nanoindentation Studies on Physics of Deformation at Microstructural Length Scale of Metals. 17. Experimental Techniques to Study Physics of Deformation behavior in Glass at Microstructural Length Scale. Part 5: Future Research Directions. 18. Future Directions: Applications of Artificial Intelligence in Material Deformation and Fracture