Unlocking the Future of Renewable Energy and Chemistry through Catalysis provides a broad view of the gaps and opportunities related to the ongoing energy and chemistry transition, particularly in the science and technology, as well as complementary aspects, including societal ones, needed to unlock the future of renewable energy and chemistry through catalysis. It provides background and complementary aspects that are needed to understand the future scenarios to identify priorities and missing aspects in technologies and scientific background, and to create an open mind approach in science and technology to unlock the renewable energy and chemistry future.
The book focuses on catalysis and complements the review articles currently available in the literature. It provides general knowledge, allowing the reader to understand the fast-evolving scenario better and, in turn, identify opportunities and needs.
1. 18.1 Introduction - p. 389 2. 18.2 Photo(electro)catalytic hydrogen production - p. 391 3. 18.3 Conjugated porous polymers as key actors in hybrids for HER - p. 395 4. 18.4 Mechanism elucidation in hybrids based on CPPs - p. 401 5. 18.5 Conclusions - p. 410 6. References - p. 410 7. Chapter 19 Design of photo-electro-catalytic devices for solar fuel generation from CO2 and N2 - p. 415 8. 19.1 Introduction - p. 415 9. 19.2 Types of systems for solar fuel generation - p. 417 10. 19.3 Key factors in designing PEC devices - p. 419 11. 19.4 Gas-diffusion electrodes and wettability - p. 421 12. 19.5 Evaluation of resistance and process efficiency - p. 423 13. 19.6 Scaling up to large PEC systems - p. 426 14. 19.7 Conclusions - p. 427 15. Acknowledgments - p. 427 16. References - p. 428 17. Chapter 20 Toward innovative photothermal catalysis - p. 431 18. Chapter 21 Metal-organic framework materials in photo(Electro)catalytic applications - p. 447 19. Index - p. 463
Unlocking the Future of Renewable Energy and Chemistry through Catalysis provides a broad view of the gaps and opportunities related to the ongoing energy and chemistry transition, particularly in the science and technology, as well as complementary aspects, including societal ones, needed to unlock the future of renewable energy and chemistry through catalysis. It provides background and complementary aspects that are needed to understand the future scenarios to identify priorities and missing aspects in technologies and scientific background, and to create an open mind approach in science and technology to unlock the renewable energy and chemistry future.
The book focuses on catalysis and complements the review articles currently available in the literature. It provides general knowledge, allowing the reader to understand the fast-evolving scenario better and, in turn, identify opportunities and needs.
1. 18.1 Introduction - p. 389 2. 18.2 Photo(electro)catalytic hydrogen production - p. 391 3. 18.3 Conjugated porous polymers as key actors in hybrids for HER - p. 395 4. 18.4 Mechanism elucidation in hybrids based on CPPs - p. 401 5. 18.5 Conclusions - p. 410 6. References - p. 410 7. Chapter 19 Design of photo-electro-catalytic devices for solar fuel generation from CO2 and N2 - p. 415 8. 19.1 Introduction - p. 415 9. 19.2 Types of systems for solar fuel generation - p. 417 10. 19.3 Key factors in designing PEC devices - p. 419 11. 19.4 Gas-diffusion electrodes and wettability - p. 421 12. 19.5 Evaluation of resistance and process efficiency - p. 423 13. 19.6 Scaling up to large PEC systems - p. 426 14. 19.7 Conclusions - p. 427 15. Acknowledgments - p. 427 16. References - p. 428 17. Chapter 20 Toward innovative photothermal catalysis - p. 431 18. Chapter 21 Metal-organic framework materials in photo(Electro)catalytic applications - p. 447 19. Index - p. 463
