Electric Vehicle Powertrains: Design Fundamentals, Components, and Applications equips readers with the technical know-how to innovate and optimize EV performance. Including solid fundamentals and a grounding in essential sustainable mobility contextualization, the book then goes on to offer a well-thought-out, systems-level perspective with protocols addressing vehicle specification requirements and quality manufacturing standards. Sections also provide an overview of the latest technological developments for each key component. Coverage of batteries, their management systems, and LCA analysis follow. Expert contributions round out the book’s offering with an exploration of cutting-edge modeling tools and a look to better-performing, more reliable, cost-effective EVs.
Users will find a valuable resource that blends blueprint-like knowledge and real-world exemplars of technical implementation issues alongside practice-informed solutions.
1. Introduction - p. xv 2. 1 Introduction to the fundamentals of the electric vehicle powertrain systems - p. 1 3. 2 Electric powertrain policies and regulatory frameworks - p. 29 4. 3 Energy-efficient motors and sustainability - p. 67 5. 4 Overview of AC motors in electric vehicle powertrains - p. 95 6. 5 Overview of DC motors in electric vehicle powertrains - p. 125 7. 6 Electric motor control systems in EV powertrains - p. 161 8. 7 Introduction to power electronics in electric vehicles - p. 197 9. 8 Overview of batteries for EV powertrains - p. 219 10. 9 Navigating the spectrum of battery health management in electric vehicles: A comprehensive review - p. 229 11. 10 Reuse and recycling of spent lithium-ion batteries from electric vehicles - p. 285 12. 11 Thermal management system for the electric vehicle powertrain system - p. 315 13. 12 Transmission systems in electric vehicles - p. 347 14. 13 Advanced performance tuning of BLDC motors using adaptive fuzzy gain scheduling PID controller - p. 367 15. 14 High voltage and high efficiency DC-DC boost converter for renewable energy applications - p. 377 16. 15 Performance of multilevel inverter with minimum number of switches for EV applications - p. 391 17. Index - p. 401
Electric Vehicle Powertrains: Design Fundamentals, Components, and Applications equips readers with the technical know-how to innovate and optimize EV performance. Including solid fundamentals and a grounding in essential sustainable mobility contextualization, the book then goes on to offer a well-thought-out, systems-level perspective with protocols addressing vehicle specification requirements and quality manufacturing standards. Sections also provide an overview of the latest technological developments for each key component. Coverage of batteries, their management systems, and LCA analysis follow. Expert contributions round out the book’s offering with an exploration of cutting-edge modeling tools and a look to better-performing, more reliable, cost-effective EVs.
Users will find a valuable resource that blends blueprint-like knowledge and real-world exemplars of technical implementation issues alongside practice-informed solutions.
1. Introduction - p. xv 2. 1 Introduction to the fundamentals of the electric vehicle powertrain systems - p. 1 3. 2 Electric powertrain policies and regulatory frameworks - p. 29 4. 3 Energy-efficient motors and sustainability - p. 67 5. 4 Overview of AC motors in electric vehicle powertrains - p. 95 6. 5 Overview of DC motors in electric vehicle powertrains - p. 125 7. 6 Electric motor control systems in EV powertrains - p. 161 8. 7 Introduction to power electronics in electric vehicles - p. 197 9. 8 Overview of batteries for EV powertrains - p. 219 10. 9 Navigating the spectrum of battery health management in electric vehicles: A comprehensive review - p. 229 11. 10 Reuse and recycling of spent lithium-ion batteries from electric vehicles - p. 285 12. 11 Thermal management system for the electric vehicle powertrain system - p. 315 13. 12 Transmission systems in electric vehicles - p. 347 14. 13 Advanced performance tuning of BLDC motors using adaptive fuzzy gain scheduling PID controller - p. 367 15. 14 High voltage and high efficiency DC-DC boost converter for renewable energy applications - p. 377 16. 15 Performance of multilevel inverter with minimum number of switches for EV applications - p. 391 17. Index - p. 401
