Advanced Technologies in Electric Vehicles: Challenges and Future Research Developments discusses fundamental and advanced concepts, challenges, and future perspectives surrounding EVs. Sections cover advances and long-term challenges such as battery life span, efficiency, and power management systems. In addition, the book covers all aspects of the EV field, including vehicle performance, configuration, control strategy, design methodology, modeling and simulation for different conventional and modern vehicles based on mathematical equations. By tackling the fundamentals, theory and design of conventional electric vehicles (EVs), hybrid electric vehicles (HEVs), and fuel cell vehicles (FCVs), this book presents a comprehensive reference. Investment in hybrid and electric vehicle (EV) technology research has been increasing steadily in recent years, both from governments and within companies. The role of the combustion engine in causing climate change has put the automobile industry on a path of rapid evolution towards electric vehicles, bringing experts with a range of backgrounds into the field.
1. Advanced Technologies in Electric Vehicles - p. Page i 2. Cover - p. Page i 3. Title page - p. Page ii 4. Table of Contents - p. Page iii 5. Copyright - p. Page iii 6. Contents - p. Page vi 7. List of contributors - p. Page vii 8. Preface - p. Page vii 9. List of Illustrations - p. Page x 10. List of Tables - p. Page xi 11. Chapter one : An overview of hybrid electric vehicles - p. Page xi 12. Chapter two : Plug-in hybrid electric vehicle system and its future advanced technology - p. Page 41 13. Chapter three : A review on modeling and estimation of state of charge of lithium-ion battery - p. Page 80 14. Chapter four : Environmental and social impact of electric vehicles - p. Page 101 15. Chapter five : Electric vehicle progression in the society and their consequences - p. Page 124 16. Chapter six : Electric-vehicle-enabled hosting capacity enhancement in distribution systems - p. Page 158 17. Chapter seven : Power quality issues with electric vehicle charging stations - p. Page 184 18. Chapter eight : Power quality impacts in the context of electric mobility - p. Page 203 19. Chapter nine : Probabilistic analysis of the technical impacts of high penetrations of electric vehicles on distribution networks - p. Page 226 20. Chapter ten : Planning the operation and expansion of power distribution systems considering electric vehicles (smart charging) - p. Page 255 21. Chapter eleven : Power loss analysis in distribution systems considering the massive penetration of electric vehicles - p. Page 275 22. Chapter twelve : Impacts on power systems: integrating electric vehicles, charging stations - p. Page 296 23. Chapter thirteen : Business model and economic feasibility of electric vehicle fast charging stations with photovoltaic electric generation and battery storage in Brazil - p. Page 319 24. Chapter fourteen : Logistical and economic impact on the transport sector with the insertion of electric trucks for last-mile transport - p. Page 340 25. Chapter fifteen : Demand side and flexible energy resource management when operating smart electric vehicle charging stations - p. Page 361 26. Chapter sixteen : Role of Harris Hawks optimization–based sliding mode control of AC-DC converter in electric vehicle onboard battery charger - p. Page 383 27. Chapter seventeen : Bidirectional electric vehicle application using isolated DC-DC converter fed DC motor - p. Page 402 28. Chapter eighteen : Photovoltaic charger used to charge the battery for off-board electric vehicles with adaptive-network-based fuzzy inference system - p. Page 410 29. Chapter nineteen : Design and implementation of adaptive-network-based fuzzy inference system controlled grid electric vehicle charging station using solar photovoltaic battery and diesel generator - p. Page 435 30. Chapter twenty : Design of bidirectional converter for electric vehicles battery charger - p. Page 453 31. Chapter twenty one : Battery thermal management system in electric vehicles employing thermoelectric cooling method - p. Page 471 32. Chapter twenty two : Design and control of bidirectional onboard charger for an electric vehicle - p. Page 479 33. Chapter twenty three : Towards electromobility: challenges in integrating electric vehicles and charging stations on power systems - p. Page 502 34. Index - p. Page 517
Advanced Technologies in Electric Vehicles: Challenges and Future Research Developments discusses fundamental and advanced concepts, challenges, and future perspectives surrounding EVs. Sections cover advances and long-term challenges such as battery life span, efficiency, and power management systems. In addition, the book covers all aspects of the EV field, including vehicle performance, configuration, control strategy, design methodology, modeling and simulation for different conventional and modern vehicles based on mathematical equations. By tackling the fundamentals, theory and design of conventional electric vehicles (EVs), hybrid electric vehicles (HEVs), and fuel cell vehicles (FCVs), this book presents a comprehensive reference. Investment in hybrid and electric vehicle (EV) technology research has been increasing steadily in recent years, both from governments and within companies. The role of the combustion engine in causing climate change has put the automobile industry on a path of rapid evolution towards electric vehicles, bringing experts with a range of backgrounds into the field.
1. Advanced Technologies in Electric Vehicles - p. Page i 2. Cover - p. Page i 3. Title page - p. Page ii 4. Table of Contents - p. Page iii 5. Copyright - p. Page iii 6. Contents - p. Page vi 7. List of contributors - p. Page vii 8. Preface - p. Page vii 9. List of Illustrations - p. Page x 10. List of Tables - p. Page xi 11. Chapter one : An overview of hybrid electric vehicles - p. Page xi 12. Chapter two : Plug-in hybrid electric vehicle system and its future advanced technology - p. Page 41 13. Chapter three : A review on modeling and estimation of state of charge of lithium-ion battery - p. Page 80 14. Chapter four : Environmental and social impact of electric vehicles - p. Page 101 15. Chapter five : Electric vehicle progression in the society and their consequences - p. Page 124 16. Chapter six : Electric-vehicle-enabled hosting capacity enhancement in distribution systems - p. Page 158 17. Chapter seven : Power quality issues with electric vehicle charging stations - p. Page 184 18. Chapter eight : Power quality impacts in the context of electric mobility - p. Page 203 19. Chapter nine : Probabilistic analysis of the technical impacts of high penetrations of electric vehicles on distribution networks - p. Page 226 20. Chapter ten : Planning the operation and expansion of power distribution systems considering electric vehicles (smart charging) - p. Page 255 21. Chapter eleven : Power loss analysis in distribution systems considering the massive penetration of electric vehicles - p. Page 275 22. Chapter twelve : Impacts on power systems: integrating electric vehicles, charging stations - p. Page 296 23. Chapter thirteen : Business model and economic feasibility of electric vehicle fast charging stations with photovoltaic electric generation and battery storage in Brazil - p. Page 319 24. Chapter fourteen : Logistical and economic impact on the transport sector with the insertion of electric trucks for last-mile transport - p. Page 340 25. Chapter fifteen : Demand side and flexible energy resource management when operating smart electric vehicle charging stations - p. Page 361 26. Chapter sixteen : Role of Harris Hawks optimization–based sliding mode control of AC-DC converter in electric vehicle onboard battery charger - p. Page 383 27. Chapter seventeen : Bidirectional electric vehicle application using isolated DC-DC converter fed DC motor - p. Page 402 28. Chapter eighteen : Photovoltaic charger used to charge the battery for off-board electric vehicles with adaptive-network-based fuzzy inference system - p. Page 410 29. Chapter nineteen : Design and implementation of adaptive-network-based fuzzy inference system controlled grid electric vehicle charging station using solar photovoltaic battery and diesel generator - p. Page 435 30. Chapter twenty : Design of bidirectional converter for electric vehicles battery charger - p. Page 453 31. Chapter twenty one : Battery thermal management system in electric vehicles employing thermoelectric cooling method - p. Page 471 32. Chapter twenty two : Design and control of bidirectional onboard charger for an electric vehicle - p. Page 479 33. Chapter twenty three : Towards electromobility: challenges in integrating electric vehicles and charging stations on power systems - p. Page 502 34. Index - p. Page 517
