Wireless Power Transfer for E-Mobility (eBook)

Wireless Power Transfer for e-Mobility: Fundamentals and Design Guidelines for Wireless Charging of Electric Vehicles provides a comprehensive resource for researchers and engineers engaged in the development of automotive WPT systems. The book opens with an overview of wireless technologies for power transfer and their evolution over time, then focusing on the application of this technology to electric mobility highlighting its importance in terms of impact and perspectives on the development of sustainable transport and autonomous driving. Chapters discuss the fundamentals of electromagnetic field in WPT systems and the circuit modelling. In addition, they examine core current electric vehicle systems and present-day automotive WPT standards. Design techniques of magnetic couplers, including compensation networks are explored in-depth alongside power electronics techniques for automotive WPT systems. Both stationary and dynamic automotive WPT systems are rigorously assessed. Finally, the problems of electromagnetic compatibility and electromagnetic field safety are described with particular attention to shielding techniques for the mitigation of magnetic field emissions. Addressing essential knowledge from foundational to advanced levels, Wireless Power Transfer for e-Mobility provides practical guidance to engineers and researchers developing the future of electric mobility. - Provides an advanced foundation for research and current industrial applications in automotive WPT systems - Develops proven methodologies linked to some case studies using examples drawn from global practice - Explores the role of WPT in near-future mobility scenarios, with featured coverage of electrified transportation - Includes an extensive usage of equations from MATLAB, Spice and COMSOL

Mauro Feliziani is Professor of Electrical Engineering at University of L'Aquila, Italy, from 1994. From 1987 to 1994 he was with the University of Rome 'La Sapienza” as a Researcher (1987-1990), Assistant Professor (1990-1992) and Associate Professor (1992-1994). He is author or co-author of around 200 papers published mainly in the fields of electromagnetic compatibility (EMC) and wireless power transfer. In 1994 he was co-founder of EMC Europe Symposium and Chair of the International Steering Committee in 2012-2015. He was the General Chair of the EMC Europe Symposium in 2002, 2005 and 2020, and Technical Program Committee Chair in 2012. He was Associate Editor of the IEEE Transactions on EMC from 1995 to 2000. He was Guest Editor of Special Issue in IEEE Transactions on Magnetics in 2002 and Energies in 2018. He was the recipient of several awards in the field of EMC, WPT systems and numerical methods.

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Wireless Power Transfer for e-Mobility: Fundamentals and Design Guidelines for Wireless Charging of Electric Vehicles provides a comprehensive resource for researchers and engineers engaged in the development of automotive WPT systems. The book opens with an overview of wireless technologies for power transfer and their evolution over time, then focusing on the application of this technology to electric mobility highlighting its importance in terms of impact and perspectives on the development of sustainable transport and autonomous driving. Chapters discuss the fundamentals of electromagnetic field in WPT systems and the circuit modelling. In addition, they examine core current electric vehicle systems and present-day automotive WPT standards. Design techniques of magnetic couplers, including compensation networks are explored in-depth alongside power electronics techniques for automotive WPT systems. Both stationary and dynamic automotive WPT systems are rigorously assessed. Finally, the problems of electromagnetic compatibility and electromagnetic field safety are described with particular attention to shielding techniques for the mitigation of magnetic field emissions. Addressing essential knowledge from foundational to advanced levels, Wireless Power Transfer for e-Mobility provides practical guidance to engineers and researchers developing the future of electric mobility. - Provides an advanced foundation for research and current industrial applications in automotive WPT systems- Develops proven methodologies linked to some case studies using examples drawn from global practice- Explores the role of WPT in near-future mobility scenarios, with featured coverage of electrified transportation- Includes an extensive usage of equations from MATLAB, Spice and COMSOL