Metal Alloys for Hydrogen Storage Applications: Solid-State Hydrogen Storage in Metal-Based Materials provides an overview of the fundamentals, mechanics, processing, and application of various metal alloys, intermetallics, metal matrix composites, metal oxides, and other lightweight metal materials for use in hydrogen storage. Titanium-based, magnesium-based, binary type, and high entropy alloys are each covered, as are hydrogen bonding systems, the effects of alloy microstructure on hydrogen storage capacity and efficiency, alloy modifiers, and coatings and additives for alloys. Modeling techniques and approaches to additive manufacturing of components for hydrogen energy storages are also outlined, and various applications are included throughout.
1. Chapter 1. Introduction to hydrogen energy storage in metals - p. 1 2. Chapter 2. Solid-state hydrogen storage materials, technologies and requirements for hydrogen energy storage and utilisation - p. 15 3. Chapter 3. Hydrogen bonding system in metal alloys - p. 41 4. Chapter 4. Kinetics and thermodynamics of solid-state absorption–desorption hydrogen energy storage systems - p. 61 5. Chapter 5. Effects of microstructures on the hydrogen energy storage capacity and efficiency of metal alloys - p. 81 6. Chapter 6. Modifiers of metal alloys for hydrogen energy storage - p. 97 7. Chapter 7. Titanium-based alloys for hydrogen storage applications - p. 111 8. Chapter 8. Magnesium-based alloys for hydrogen storage applications - p. 133 9. Chapter 9. Binary-type (AB5, AB, A2B and AB2) alloys for hydrogen storage applications - p. 163 10. Chapter 10. High-entropy alloys (HEAs) for hydrogen storage applications - p. 177 11. Chapter 11. Other metal alloys and intermetallics for hydrogen storage applications - p. 197 12. Introduction - p. 197 13. Hydrogen storage by metal hydrides - p. 198 14. Intermetallic for hydrogen storage - p. 205 15. Non-stoichiometric or complex alloys for hydrogen storage - p. 209 16. Nitrides - p. 221 17. Other non-stoichiometric complex alloys - p. 222 18. Chapter 12. Metal matrix composites for hydrogen storage applications - p. 233 19. Chapter 13. Metal oxides as host for hydrogen energy storage applications - p. 257 20. Chapter 14. Coatings and additives for hydrogen storage in metal alloys - p. 287 21. Chapter 15. Other lightweight materials for hydrogen energy storage applications - p. 313 22. Chapter 16. Processing of metal alloys for hydrogen storage - p. 339 23. Chapter 17. Additive manufacturing of 3D printed components for hydrogen energy storages technologies - p. 351 24. Chapter 18. Modelling of metal-based alloys for hydrogen energy storage - p. 367 25. Chapter 19. The adoption of metal alloys as hydrogen storage materials for different energy applications - p. 379 26. Chapter 20. Energy usage and consumption in processing and production of metallic materials for cost-effective hydrogen energy applications - p. 395 27. Chapter 21. Conclusion: Future trends, challenges and recommendations for metal alloys as hydrogen energy storage materials - p. 411 28. Index - p. 419
Metal Alloys for Hydrogen Storage Applications: Solid-State Hydrogen Storage in Metal-Based Materials provides an overview of the fundamentals, mechanics, processing, and application of various metal alloys, intermetallics, metal matrix composites, metal oxides, and other lightweight metal materials for use in hydrogen storage. Titanium-based, magnesium-based, binary type, and high entropy alloys are each covered, as are hydrogen bonding systems, the effects of alloy microstructure on hydrogen storage capacity and efficiency, alloy modifiers, and coatings and additives for alloys. Modeling techniques and approaches to additive manufacturing of components for hydrogen energy storages are also outlined, and various applications are included throughout.
1. Chapter 1. Introduction to hydrogen energy storage in metals - p. 1 2. Chapter 2. Solid-state hydrogen storage materials, technologies and requirements for hydrogen energy storage and utilisation - p. 15 3. Chapter 3. Hydrogen bonding system in metal alloys - p. 41 4. Chapter 4. Kinetics and thermodynamics of solid-state absorption–desorption hydrogen energy storage systems - p. 61 5. Chapter 5. Effects of microstructures on the hydrogen energy storage capacity and efficiency of metal alloys - p. 81 6. Chapter 6. Modifiers of metal alloys for hydrogen energy storage - p. 97 7. Chapter 7. Titanium-based alloys for hydrogen storage applications - p. 111 8. Chapter 8. Magnesium-based alloys for hydrogen storage applications - p. 133 9. Chapter 9. Binary-type (AB5, AB, A2B and AB2) alloys for hydrogen storage applications - p. 163 10. Chapter 10. High-entropy alloys (HEAs) for hydrogen storage applications - p. 177 11. Chapter 11. Other metal alloys and intermetallics for hydrogen storage applications - p. 197 12. Introduction - p. 197 13. Hydrogen storage by metal hydrides - p. 198 14. Intermetallic for hydrogen storage - p. 205 15. Non-stoichiometric or complex alloys for hydrogen storage - p. 209 16. Nitrides - p. 221 17. Other non-stoichiometric complex alloys - p. 222 18. Chapter 12. Metal matrix composites for hydrogen storage applications - p. 233 19. Chapter 13. Metal oxides as host for hydrogen energy storage applications - p. 257 20. Chapter 14. Coatings and additives for hydrogen storage in metal alloys - p. 287 21. Chapter 15. Other lightweight materials for hydrogen energy storage applications - p. 313 22. Chapter 16. Processing of metal alloys for hydrogen storage - p. 339 23. Chapter 17. Additive manufacturing of 3D printed components for hydrogen energy storages technologies - p. 351 24. Chapter 18. Modelling of metal-based alloys for hydrogen energy storage - p. 367 25. Chapter 19. The adoption of metal alloys as hydrogen storage materials for different energy applications - p. 379 26. Chapter 20. Energy usage and consumption in processing and production of metallic materials for cost-effective hydrogen energy applications - p. 395 27. Chapter 21. Conclusion: Future trends, challenges and recommendations for metal alloys as hydrogen energy storage materials - p. 411 28. Index - p. 419
