Decarbonization Strategies and Drivers to Achieve Carbon Neutrality for Sustainability emphasizes the significance of various decarbonization strategies. It is expected to solve some of the problems centered around decarbonization and available technologies and to diversify renewable energy supply in different sectors contributing to energy security.
The book covers contribution of bioenergy to decarbonization, non-fossil energy targets, role of wind energy, hydrogen energy, potential of geothermal energy, nuclear energy, wind to energy, role of electrication and carbon capture, utilization and storage (CCUS) technologies are covered in this work. Decarbonization Strategies and Drivers to Achieve Carbon Neutrality for Sustainability aims to explain how reducing petroleum consumption and supplementing alternate sources of renewable fuels is vital and would strengthen decarbonization.
1. Decarbonization Strategies and Drivers to Achieve Carbon Neutrality for Sustainability - p. Page i 2. Cover - p. Page i 3. Front Matter - p. Page ii 4. Table of Contents - p. Page iii 5. Copyright - p. Page iii 6. Contributors - p. Page v 7. About the editors - p. Page xii 8. Foreword - p. Page xv 9. Preface - p. Page xv 10. Acknowledgments - p. Page xviii 11. List of Illustrations - p. Page xix 12. List of Tables - p. Page xx 13. Chapter One : Bioenergy's role in the path to decarbonization - p. Page xx 14. Chapter Two : Nonfossil energy targets for environmental sustainability - p. Page 22 15. Chapter Three : The role of wind energy to the decarbonization in some Asian countries - p. Page 41 16. Chapter Four : Hydrogen and ammonia energy for decarbonization - p. Page 62 17. Chapter Five : Decarbonization potential of geothermal energy: A new approach - p. Page 80 18. Chapter Six : Nuclear energy and its role in decarbonization: Scenarios and perspectives - p. Page 93 19. Chapter Seven : Si-based agrochemicals for mitigation of greenhouse gases and sequestration carbon - p. Page 114 20. Chapter Eight : Reducing arable greenhouse gas emissions for sustainability - p. Page 134 21. Chapter Nine : Electric vehicles for environmental sustainability - p. Page 153 22. Chapter Ten : Internet of things [IoT] for charging of electrical vehicles - p. Page 176 23. Chapter Eleven : Carbon dioxide capture technologies for the conventional energy sector - p. Page 195 24. Chapter Twelve : Biological carbon sequestration for environmental sustainability - p. Page 219 25. Chapter Thirteen : Policy planning and implementation for carbon capture technologies - p. Page 250 26. Chapter Fourteen : E-fuels: Pathway toward cleaner future - p. Page 278 27. Chapter Fifteen : CO2 sequestration for conventional utilization and industrial application - p. Page 293 28. Chapter Sixteen : The significant role of waste to energy on decarbonization - p. Page 315 29. Chapter Seventeen : Green energy from waste to promote decarbonization - p. Page 340 30. Chapter Eighteen : Involvement of the informal plastic recycler in reducing carbon emission: A review - p. Page 358 31. Chapter Nineteen : Successful energy transition—Case study in Indonesia - p. Page 381 32. Chapter Twenty : Decarbonization pathways for transition in Indonesian power sector—Converting landfilled waste into electricity - p. Page 405 33. Chapter Twenty One : A case study on the decarbonization of environment and production of bioenergy from Hevea brasiliensis Müll. Arg. in Kottayam district, India - p. Page 424 34. Chapter Twenty Two : Agronomic practices for storing soil carbon and reducing greenhouse gas emission in the Mediterranean region - p. Page 442 35. Chapter Twenty Three : Harnessing home gardens for sustainable agroforestry: A promising approach to reducing greenhouse gas emission - p. Page 471 36. Chapter Twenty Four : Nanomaterials and novel solvents for carbon capture technologies - p. Page 496 37. Chapter Twenty Five : Landfill gas as a source of energy to promote decarbonization: Evaluation of Yazd county landfill, Iran - p. Page 509 38. Chapter Twenty Six : Green energy from waste to promote decarbonization: A case study in Brazil - p. Page 525 39. Chapter Twenty Seven : Decarbonizing iron and steel sectors in India - p. Page 551 40. Index - p. Page 611
Decarbonization Strategies and Drivers to Achieve Carbon Neutrality for Sustainability emphasizes the significance of various decarbonization strategies. It is expected to solve some of the problems centered around decarbonization and available technologies and to diversify renewable energy supply in different sectors contributing to energy security.
The book covers contribution of bioenergy to decarbonization, non-fossil energy targets, role of wind energy, hydrogen energy, potential of geothermal energy, nuclear energy, wind to energy, role of electrication and carbon capture, utilization and storage (CCUS) technologies are covered in this work. Decarbonization Strategies and Drivers to Achieve Carbon Neutrality for Sustainability aims to explain how reducing petroleum consumption and supplementing alternate sources of renewable fuels is vital and would strengthen decarbonization.
1. Decarbonization Strategies and Drivers to Achieve Carbon Neutrality for Sustainability - p. Page i 2. Cover - p. Page i 3. Front Matter - p. Page ii 4. Table of Contents - p. Page iii 5. Copyright - p. Page iii 6. Contributors - p. Page v 7. About the editors - p. Page xii 8. Foreword - p. Page xv 9. Preface - p. Page xv 10. Acknowledgments - p. Page xviii 11. List of Illustrations - p. Page xix 12. List of Tables - p. Page xx 13. Chapter One : Bioenergy's role in the path to decarbonization - p. Page xx 14. Chapter Two : Nonfossil energy targets for environmental sustainability - p. Page 22 15. Chapter Three : The role of wind energy to the decarbonization in some Asian countries - p. Page 41 16. Chapter Four : Hydrogen and ammonia energy for decarbonization - p. Page 62 17. Chapter Five : Decarbonization potential of geothermal energy: A new approach - p. Page 80 18. Chapter Six : Nuclear energy and its role in decarbonization: Scenarios and perspectives - p. Page 93 19. Chapter Seven : Si-based agrochemicals for mitigation of greenhouse gases and sequestration carbon - p. Page 114 20. Chapter Eight : Reducing arable greenhouse gas emissions for sustainability - p. Page 134 21. Chapter Nine : Electric vehicles for environmental sustainability - p. Page 153 22. Chapter Ten : Internet of things [IoT] for charging of electrical vehicles - p. Page 176 23. Chapter Eleven : Carbon dioxide capture technologies for the conventional energy sector - p. Page 195 24. Chapter Twelve : Biological carbon sequestration for environmental sustainability - p. Page 219 25. Chapter Thirteen : Policy planning and implementation for carbon capture technologies - p. Page 250 26. Chapter Fourteen : E-fuels: Pathway toward cleaner future - p. Page 278 27. Chapter Fifteen : CO2 sequestration for conventional utilization and industrial application - p. Page 293 28. Chapter Sixteen : The significant role of waste to energy on decarbonization - p. Page 315 29. Chapter Seventeen : Green energy from waste to promote decarbonization - p. Page 340 30. Chapter Eighteen : Involvement of the informal plastic recycler in reducing carbon emission: A review - p. Page 358 31. Chapter Nineteen : Successful energy transition—Case study in Indonesia - p. Page 381 32. Chapter Twenty : Decarbonization pathways for transition in Indonesian power sector—Converting landfilled waste into electricity - p. Page 405 33. Chapter Twenty One : A case study on the decarbonization of environment and production of bioenergy from Hevea brasiliensis Müll. Arg. in Kottayam district, India - p. Page 424 34. Chapter Twenty Two : Agronomic practices for storing soil carbon and reducing greenhouse gas emission in the Mediterranean region - p. Page 442 35. Chapter Twenty Three : Harnessing home gardens for sustainable agroforestry: A promising approach to reducing greenhouse gas emission - p. Page 471 36. Chapter Twenty Four : Nanomaterials and novel solvents for carbon capture technologies - p. Page 496 37. Chapter Twenty Five : Landfill gas as a source of energy to promote decarbonization: Evaluation of Yazd county landfill, Iran - p. Page 509 38. Chapter Twenty Six : Green energy from waste to promote decarbonization: A case study in Brazil - p. Page 525 39. Chapter Twenty Seven : Decarbonizing iron and steel sectors in India - p. Page 551 40. Index - p. Page 611
