Solar-Driven Green Hydrogen Generation and Storage

1. Exploring the hydrogen evolution reaction (HER) side of perovskite-based materials during photoelectrochemical water splitting<br>2. Phosphorene-based functional nanomaterials for photoelectrochemical water splitting<br>3. Polymer-based catalyst for photoelectrochemical water splitting<br>4. Transition metal-based single-atom catalyst for photoelectrochemical water splitting<br>5. Clathrate hydrate as a potential medium for hydrogen storage application<br>6. Advanced carbon-based nanomaterials for photoelectrochemical water splitting<br>7. MXene-transition metal compound sulfide and phosphide hetero-nanostructures for photoelectrochemical water splitting<br>8. Design and advances of semiconductors for photoelectrochemical water-splitting<br>9. Dye-sensitized photoelectrochemical cells in water splitting<br>10. Photobiological hydrogen production: Introduction and fundamental concept<br>11. Biological hydrogen production driven by photo-fermentation processes<br>12. Photobiological hydrogen production by microorganisms<br>13. Photobiological production of hydrogen from biomass<br>14. Challenges in scaling low-carbon hydrogen production in Europe<br>15. Photobioreactor for hydrogen production<br>16. Thermochemical hydrogen production<br>17. Hydrogen production driven by nuclear energy<br>18. Hydrogen production driven by seawater electrolysis<br>19. Prospects and challenges for the green hydrogen market<br>20. Hydrogen production from biomass gasification<br>21. Approach toward economical hydrogen storage<br>22. Power-paste hydrogen storage technologies<br>23. Advanced nanomaterials for hydrogen storage<br>24. Application of hydrogen in various sectors<br>25. Application of machine learning approach for green hydrogen<br>