Metal Organic Frameworks for Energy and Environmental Applications presents a comprehensive overview on the application of metal organic frameworks (MOFs) to energy and environmental areas. MOFs are a promising class of materials due to their tunable structures, high surface area, and versatile functionalities, and are capturing the attention of the global scientific community due to their intersection with environmental concerns. Chapters summarize recent research on MOFS and synthesis strategies for catalysis, including photocatalysis, electrocatalysis, and thermal catalysis, and how MOFs offer enhanced performance, selectivity, and efficiency.
Additionally, the vital role MOFs play in energy storage, environmental purification, including degradation of harmful agents, and resource utilization is explored. The book also presents new research on machine learning and data mining, including how researchers can leverage datasets and algorithms to discover new, high-performance MOFs. Metal Organic Frameworks for Energy and Environmental Applications will be a valuable reference for those studying and working in the field of MOFs as they apply to energy, environmental technologies, catalysis, and materials science.
1. Chapter 1 Introduction to metal–organic frameworks - p. 1 2. Chapter 2 Synthetic strategies for metal–organic frameworks - p. 27 3. Chapter 3 Characterization techniques for metal–organic frameworks - p. 65 4. Chapter 4 Shaping of metal–organic frameworks - p. 95 5. Chapter 5 Metal–organic frameworks for photocatalytic water splitting - p. 107 6. Chapter 6 Metal–organic frameworks for photocatalytic CO2 reduction - p. 137 7. Chapter 7 Metal–organic frameworks for hydrogen evolution reaction and oxygen evolution reaction - p. 161 8. Chapter 8 Metal–organic frameworks for CO2 electroreduction - p. 193 9. Chapter 9 Metal–organic frameworks for oxidation and hydrogenation reaction - p. 213 10. Chapter 10 Metal–organic frameworks for thermal energy storage - p. 241 11. Chapter 11 Metal–organic framework for electrical energy storage - p. 257 12. Chapter 12 Metal–organic frameworks for chemical warfare agent degradation - p. 273 13. Chapter 13 Metal–organic frameworks for gas sensors - p. 303 14. Chapter 14 Metal–organic frameworks for extraction of radionuclide/noble metals/lithium - p. 319 15. Chapter 15 Metal–organic frameworks for volatile organic compounds removal - p. 351 16. Chapter 16 Machine learning accelerates the development of metal–organic frameworks - p. 385 17. Index - p. 449
Metal Organic Frameworks for Energy and Environmental Applications presents a comprehensive overview on the application of metal organic frameworks (MOFs) to energy and environmental areas. MOFs are a promising class of materials due to their tunable structures, high surface area, and versatile functionalities, and are capturing the attention of the global scientific community due to their intersection with environmental concerns. Chapters summarize recent research on MOFS and synthesis strategies for catalysis, including photocatalysis, electrocatalysis, and thermal catalysis, and how MOFs offer enhanced performance, selectivity, and efficiency.
Additionally, the vital role MOFs play in energy storage, environmental purification, including degradation of harmful agents, and resource utilization is explored. The book also presents new research on machine learning and data mining, including how researchers can leverage datasets and algorithms to discover new, high-performance MOFs. Metal Organic Frameworks for Energy and Environmental Applications will be a valuable reference for those studying and working in the field of MOFs as they apply to energy, environmental technologies, catalysis, and materials science.
1. Chapter 1 Introduction to metal–organic frameworks - p. 1 2. Chapter 2 Synthetic strategies for metal–organic frameworks - p. 27 3. Chapter 3 Characterization techniques for metal–organic frameworks - p. 65 4. Chapter 4 Shaping of metal–organic frameworks - p. 95 5. Chapter 5 Metal–organic frameworks for photocatalytic water splitting - p. 107 6. Chapter 6 Metal–organic frameworks for photocatalytic CO2 reduction - p. 137 7. Chapter 7 Metal–organic frameworks for hydrogen evolution reaction and oxygen evolution reaction - p. 161 8. Chapter 8 Metal–organic frameworks for CO2 electroreduction - p. 193 9. Chapter 9 Metal–organic frameworks for oxidation and hydrogenation reaction - p. 213 10. Chapter 10 Metal–organic frameworks for thermal energy storage - p. 241 11. Chapter 11 Metal–organic framework for electrical energy storage - p. 257 12. Chapter 12 Metal–organic frameworks for chemical warfare agent degradation - p. 273 13. Chapter 13 Metal–organic frameworks for gas sensors - p. 303 14. Chapter 14 Metal–organic frameworks for extraction of radionuclide/noble metals/lithium - p. 319 15. Chapter 15 Metal–organic frameworks for volatile organic compounds removal - p. 351 16. Chapter 16 Machine learning accelerates the development of metal–organic frameworks - p. 385 17. Index - p. 449
