Hybrid Poly-generation Energy Systems: Thermal Design and Exergy Analysis provides an analysis of the latest technologies and concepts of hybrid energy systems, focusing on thermal applications. The book guides readers through an introduction to hybrid poly-generation systems and the storage options available before working through the types of hybrid systems, including solar, fuel cells, combustion, and heating and cooling. An analysis of the economic and environmental impact of each system is included, as well as methods and approaches for exergy and energy improvement analysis. This book can be used as a tool for understanding new concepts in this emerging field and as a reference for researchers and professionals working on the integrated cogeneration of power systems.
1. 2.1: Introduction - p. 11 2. 2.2: Proposed process frameworks for solar polygeneration systems - p. 11 3. 2.3: Solar power plant - p. 21 4. 2.4: Solar thermochemical reactors - p. 33 5. 2.5: Wind energy-based polygeneration systems - p. 49 6. 2.6: Hydrogen production by a multipurpose cycle consisting of wind turbine and heliostats - p. 50 7. 2.7: Conceptual configuration of using wind energy and geothermal energy to produce hydrogen chloride - p. 51 8. 2.8: Multipurpose combinations of wind and solar energy for power and refrigeration generation, energy storage, water desalination, food drying, and water electrolysis - p. 52 9. 2.9: CO2 capturing using wind energy in a multiproduction energy system - p. 53 10. 2.10: Geothermal energy and polygeneration systems - p. 54 11. 2.11: Biomass energy used in polygeneration systems - p. 68 12. 2.12: How to combine hydroenergy systems and polygeneration systems? - p. 102 13. 2.13: Hybrid power generation of hydropower - p. 104 14. 2.14: Polygeneration systems that use wave energy resources - p. 113 15. References - p. 115 16. 3 Energy storage type and size in PGSs - p. 125 17. 4 Exergy, energy, environmental and economic analysis of hybrid poly-generation systems: methods and approaches - p. 147 18. 5 Solar-based hybrid energy systems - p. 167 19. 6 Technical and economic prospects of fuel cells combination with polygeneration systems? - p. 193 20. 6.1: Fuel cell - p. 193 21. 6.2: Electrolyze - p. 213 22. 6.3: SOFCs in polygeneration systems - p. 237 23. 6.3.1: SOFC - p. 237 24. 6.3.2: Molten carbonate fuel cells in polygeneration systems - p. 304 25. References - p. 305 26. 7 Biomass-based hybrid energy systems - p. 313 27. 8 Chemical looping combustion in polygeneration systems - p. 373 28. 9 A framework for sustainable hydrogen production by polygeneration systems - p. 393 29. 9.1: Introduction - p. 393 30. 9.2: High-temperature hybrid electrolyzers - p. 419 31. 9.3: Biomass and photobiological processes to produce hydrogen - p. 460 32. 9.4: GS reactor temperature effect on hydrogen production rate - p. 507 33. 9.5: Sulfuric acid system - p. 517 34. References - p. 546 35. 10 Integration of oxyfuel power plants in polygeneration systems - p. 553 36. 11 Basic power and cooling production systems in combination with polygeneration systems to trigeneration of cold, heat, and power - p. 573 37. 12 Integration of carbon dioxide capturing processes in hybrid energy systems - p. 619 38. 13 Why advanced analyses? - p. 643 39. Index - p. 661
Hybrid Poly-generation Energy Systems: Thermal Design and Exergy Analysis provides an analysis of the latest technologies and concepts of hybrid energy systems, focusing on thermal applications. The book guides readers through an introduction to hybrid poly-generation systems and the storage options available before working through the types of hybrid systems, including solar, fuel cells, combustion, and heating and cooling. An analysis of the economic and environmental impact of each system is included, as well as methods and approaches for exergy and energy improvement analysis. This book can be used as a tool for understanding new concepts in this emerging field and as a reference for researchers and professionals working on the integrated cogeneration of power systems.
1. 2.1: Introduction - p. 11 2. 2.2: Proposed process frameworks for solar polygeneration systems - p. 11 3. 2.3: Solar power plant - p. 21 4. 2.4: Solar thermochemical reactors - p. 33 5. 2.5: Wind energy-based polygeneration systems - p. 49 6. 2.6: Hydrogen production by a multipurpose cycle consisting of wind turbine and heliostats - p. 50 7. 2.7: Conceptual configuration of using wind energy and geothermal energy to produce hydrogen chloride - p. 51 8. 2.8: Multipurpose combinations of wind and solar energy for power and refrigeration generation, energy storage, water desalination, food drying, and water electrolysis - p. 52 9. 2.9: CO2 capturing using wind energy in a multiproduction energy system - p. 53 10. 2.10: Geothermal energy and polygeneration systems - p. 54 11. 2.11: Biomass energy used in polygeneration systems - p. 68 12. 2.12: How to combine hydroenergy systems and polygeneration systems? - p. 102 13. 2.13: Hybrid power generation of hydropower - p. 104 14. 2.14: Polygeneration systems that use wave energy resources - p. 113 15. References - p. 115 16. 3 Energy storage type and size in PGSs - p. 125 17. 4 Exergy, energy, environmental and economic analysis of hybrid poly-generation systems: methods and approaches - p. 147 18. 5 Solar-based hybrid energy systems - p. 167 19. 6 Technical and economic prospects of fuel cells combination with polygeneration systems? - p. 193 20. 6.1: Fuel cell - p. 193 21. 6.2: Electrolyze - p. 213 22. 6.3: SOFCs in polygeneration systems - p. 237 23. 6.3.1: SOFC - p. 237 24. 6.3.2: Molten carbonate fuel cells in polygeneration systems - p. 304 25. References - p. 305 26. 7 Biomass-based hybrid energy systems - p. 313 27. 8 Chemical looping combustion in polygeneration systems - p. 373 28. 9 A framework for sustainable hydrogen production by polygeneration systems - p. 393 29. 9.1: Introduction - p. 393 30. 9.2: High-temperature hybrid electrolyzers - p. 419 31. 9.3: Biomass and photobiological processes to produce hydrogen - p. 460 32. 9.4: GS reactor temperature effect on hydrogen production rate - p. 507 33. 9.5: Sulfuric acid system - p. 517 34. References - p. 546 35. 10 Integration of oxyfuel power plants in polygeneration systems - p. 553 36. 11 Basic power and cooling production systems in combination with polygeneration systems to trigeneration of cold, heat, and power - p. 573 37. 12 Integration of carbon dioxide capturing processes in hybrid energy systems - p. 619 38. 13 Why advanced analyses? - p. 643 39. Index - p. 661
