Metal Alloys for Hydrogen Storage Applications

1. Introduction to Hydrogen Energy Storage in Metals<br>2. Solid-State Hydrogen Storage Materials, Technologies, and Requirements for Hydrogen Energy Storage and Utilization<br>3. Hydrogen Bonding System in Metal Alloys<br>4. Kinetics and Thermodynamics of Solid-State Absorption-Desorption Hydrogen Energy Storage Systems<br>5. Effects of Microstructures on the Hydrogen Energy Storage Capacity and Efficiency of Metal Alloys<br>6. Modifiers of Metal Alloys for Hydrogen Energy Storage<br>7. Titanium-Based Alloys for Hydrogen Storage Applications<br>8. Magnesium-Based Alloys for Hydrogen Storage Applications<br>9. Binary-Type (AB5, AB, A2B and AB2) Alloys For Hydrogen Storage Applications<br>10. High Entropy Alloys (HEAs) for Hydrogen Storage Applications<br>11. Other Metal Alloys and Intermetallics for Hydrogen Storage Applications<br>12. Metal Matrix Composites for Hydrogen Storage Applications<br>13. Metal Oxides as Host for Hydrogen Energy Storage Applications<br>14. Coatings and Additives for Hydrogen Storage in Metal Alloys<br>15. Other Lightweight Materials for Hydrogen Energy Storage Applications<br>16. Processing of Metal Alloys for Hydrogen Storage<br>17. Additive Manufacturing of 3D Printed Components for Hydrogen Energy Storages Technologies<br>18. Modeling of Metal-Based Alloys for Hydrogen Energy Storage<br>19. The Adoption of Metal Alloys as Hydrogen Storage Materials for Different Energy Applications<br>20. Energy Usage and Consumption in Processing and Production of Metallic Materials for Cost-Effective Hydrogen Energy Applications<br>21. Conclusion: Future Trends, Challenges and Recommendations for Metal Alloys as Hydrogen Energy Storage Materials