Integrated Energy Systems for Multigeneration looks at how measures implemented to limit greenhouse gas emissions must consider smart utilization of available limited resources and employ renewable resources through integrated energy systems and the utilization of waste energy streams. This reference considers the main concepts of thermal and conventional energy systems through detailed systems description, analyses of methodologies, performance assessment and optimization, and illustrative examples and case studies. The book examines producing power and heat with cooling, freshwater, green fuels and other useful commodities designed to tackle rising greenhouse gas emissions in the atmosphere.
With worldwide energy demand increasing, and the consequences of meeting supply with current dependency on fossil fuels, investigating and developing sustainable alternatives to the conventional energy systems is a growing concern for global stakeholders.
1. 2.1 Introduction - p. 33 2. 2.2 Fundamentals of thermodynamics - p. 34 3. 2.3 Energy and exergy analyses - p. 50 4. 2.4 Common steady-flow devices - p. 56 5. 2.5 Energy and exergy analysis of common energy systems and components - p. 68 6. 2.6 Conclusions - p. 80 7. Chapter 3: System integration for multigeneration - p. 83 8. Chapter 4: Integration of conventional energy systems for multigeneration - p. 142 9. Abstract - p. 143 10. 4.1 Introduction - p. 143 11. 4.2 Power cycles - p. 144 12. 4.3 Combined cycles - p. 154 13. 4.4 Brainstorming for system integration - p. 160 14. 4.5 Case study 1: Compressed air energy storage (CAES) for an integrated gas turbine power plant - p. 161 15. 4.6 Case study 2: Integrated gasification combined cycle with a water gas shift membrane reactor for hydrogen production - p. 170 16. 4.7 Case study 3: Development of an integrated trigeneration system for dimethyl-ether, electricity and fresh water production using waste heat - p. 180 17. 4.8 Case study 4: Integrated solid oxide fuel cell (SOFC) and coal gasification system for cogeneration - p. 192 18. 4.9 Case study 5: Integrated underground coal gasification and steam assisted gravity drainage (SAGD) with SOFC fuel cell system - p. 200 19. 4.10 Conclusions - p. 216 20. Chapter 5: Integration of nuclear energy systems for multigeneration - p. 221 21. Chapter 6: Integration of renewable energy systems for multigeneration - p. 285 22. Abstract - p. 287 23. 6.1 Introduction - p. 287 24. 6.2 Solar energy systems - p. 288 25. 6.3 Wind energy systems - p. 291 26. 6.4 Hydro energy systems - p. 294 27. 6.5 Geothermal energy systems - p. 297 28. 6.6 Ocean energy systems - p. 301 29. 6.7 Biomass energy systems - p. 305 30. 6.8 Brainstorming for system integration - p. 309 31. 6.9 Case study 1: Solar heliostat-based multigeneration system - p. 312 32. 6.10 Case study 2: Solar parabolic troughs integrated to thermoelectric generator for multigeneration - p. 318 33. 6.11 Case study 3: Combined solar and geothermal energy-based integrated system for multigeneration - p. 324 34. 6.12 Case study 4: Integrated concentrated solar energy system for hydrogen, cooling, fresh water, domestic hot water and electricity production - p. 331 35. 6.13 Case study 5: Optimization of flashing pressure for geothermal power plants using single to quadruple flashing steps - p. 336 36. 6.14 Case study 6: Integrated solar and geothermal based multigeneration system for buildings - p. 350 37. 6.15 Case study 7: Photovoltaic/thermal (PV/T) and geothermal-based multigeneration system - p. 356 38. 6.16 Case study 8: Concentrating photovoltaic/thermal (CPV/T) system using nucleate boiling heat transfer (NBHT) thermal management for multigeneration - p. 367 39. 6.17 Case study 9: Integrated concentrated solar and biomass energy system with phase change material (PCM) and ammonia synthesis - p. 381 40. 6.18 Case Study 10: Integration of solar ponds with pressure retarded osmosis for desalination and photo-assisted chloralkali processes - p. 389 41. 6.19 Conclusions - p. 395 42. Chapter 7: Enhanced dimensions of integrated energy systems for environment and sustainability - p. 402 43. Index - p. 441
Integrated Energy Systems for Multigeneration looks at how measures implemented to limit greenhouse gas emissions must consider smart utilization of available limited resources and employ renewable resources through integrated energy systems and the utilization of waste energy streams. This reference considers the main concepts of thermal and conventional energy systems through detailed systems description, analyses of methodologies, performance assessment and optimization, and illustrative examples and case studies. The book examines producing power and heat with cooling, freshwater, green fuels and other useful commodities designed to tackle rising greenhouse gas emissions in the atmosphere.
With worldwide energy demand increasing, and the consequences of meeting supply with current dependency on fossil fuels, investigating and developing sustainable alternatives to the conventional energy systems is a growing concern for global stakeholders.
1. 2.1 Introduction - p. 33 2. 2.2 Fundamentals of thermodynamics - p. 34 3. 2.3 Energy and exergy analyses - p. 50 4. 2.4 Common steady-flow devices - p. 56 5. 2.5 Energy and exergy analysis of common energy systems and components - p. 68 6. 2.6 Conclusions - p. 80 7. Chapter 3: System integration for multigeneration - p. 83 8. Chapter 4: Integration of conventional energy systems for multigeneration - p. 142 9. Abstract - p. 143 10. 4.1 Introduction - p. 143 11. 4.2 Power cycles - p. 144 12. 4.3 Combined cycles - p. 154 13. 4.4 Brainstorming for system integration - p. 160 14. 4.5 Case study 1: Compressed air energy storage (CAES) for an integrated gas turbine power plant - p. 161 15. 4.6 Case study 2: Integrated gasification combined cycle with a water gas shift membrane reactor for hydrogen production - p. 170 16. 4.7 Case study 3: Development of an integrated trigeneration system for dimethyl-ether, electricity and fresh water production using waste heat - p. 180 17. 4.8 Case study 4: Integrated solid oxide fuel cell (SOFC) and coal gasification system for cogeneration - p. 192 18. 4.9 Case study 5: Integrated underground coal gasification and steam assisted gravity drainage (SAGD) with SOFC fuel cell system - p. 200 19. 4.10 Conclusions - p. 216 20. Chapter 5: Integration of nuclear energy systems for multigeneration - p. 221 21. Chapter 6: Integration of renewable energy systems for multigeneration - p. 285 22. Abstract - p. 287 23. 6.1 Introduction - p. 287 24. 6.2 Solar energy systems - p. 288 25. 6.3 Wind energy systems - p. 291 26. 6.4 Hydro energy systems - p. 294 27. 6.5 Geothermal energy systems - p. 297 28. 6.6 Ocean energy systems - p. 301 29. 6.7 Biomass energy systems - p. 305 30. 6.8 Brainstorming for system integration - p. 309 31. 6.9 Case study 1: Solar heliostat-based multigeneration system - p. 312 32. 6.10 Case study 2: Solar parabolic troughs integrated to thermoelectric generator for multigeneration - p. 318 33. 6.11 Case study 3: Combined solar and geothermal energy-based integrated system for multigeneration - p. 324 34. 6.12 Case study 4: Integrated concentrated solar energy system for hydrogen, cooling, fresh water, domestic hot water and electricity production - p. 331 35. 6.13 Case study 5: Optimization of flashing pressure for geothermal power plants using single to quadruple flashing steps - p. 336 36. 6.14 Case study 6: Integrated solar and geothermal based multigeneration system for buildings - p. 350 37. 6.15 Case study 7: Photovoltaic/thermal (PV/T) and geothermal-based multigeneration system - p. 356 38. 6.16 Case study 8: Concentrating photovoltaic/thermal (CPV/T) system using nucleate boiling heat transfer (NBHT) thermal management for multigeneration - p. 367 39. 6.17 Case study 9: Integrated concentrated solar and biomass energy system with phase change material (PCM) and ammonia synthesis - p. 381 40. 6.18 Case Study 10: Integration of solar ponds with pressure retarded osmosis for desalination and photo-assisted chloralkali processes - p. 389 41. 6.19 Conclusions - p. 395 42. Chapter 7: Enhanced dimensions of integrated energy systems for environment and sustainability - p. 402 43. Index - p. 441
