Mechanics - Microstructure - Corrosion Coupling

Part 1. The Basics for Understanding Mechanics–Environment–Microstructure Couplings
1. Environmentally Assisted Cracking
2. The Basics to Better Understand Couplings in Physical Metallurgy
3. Continuum Mechanics
4. Fatigue Crack Initiation and Propagation
5. Surface Chemistry and Passivation of Metals and Alloys
6. Electrochemistry for Mechanically assisted Corrosion
7. Modeling Tools: From the Atom to the Macroscopic Scale

Part 2. Hydrogen and the Embrittlement of Metallic Materials Ad/Absorption, Trapping and Transport Mechanisms
8. State of Hydrogen in Matter: Fundamental Ad/Absorption, Trapping and Transport Mechanisms
9. Hydrogen and Crystal Defects Interactions: Effects on Plasticity and Fracture
10. Industrial Consequences of Hydrogen Embrittlement
11. Experimental Techniques for Dosage and Detection of Hydrogen

Part 3. Stress Corrosion Cracking
12. Effect of Stress/Strain Fields on Electrochemical Activity: Metallurgy/Stress Interaction and Surface Reactivity
13. Stress Corrosion Cracking. Between the Corrosion Defect and the Long Crack: The Phase of the Initiation of the Cracks
14. Stress Corrosion Crack Propagation
15. Oxidation-assisted Cracking
16. Stress Corrosion Cracking: From In-service Cracking to Laboratory Studies

Part 4. Corrosion Fatigue
17. Corrosion and Hydrogen Fatigue at Different Scales
18. Local-scale Modeling of Plasticity–Environment Interactions
19. Specific Cases of Corrosion Fatigue

Part 5. Additional Information and the Paths to Solving Interrelated Problems
20. Local Electrochemical Methods Adapted to Studying Environment–Microstructure–Mechanics Couplings
21. Mechanical Tests in Corrosive Environments and Under Gaseous Hydrogen
22. Liquid Metal Embrittlement