Title :
Review of inductive power transfer technology for electric and plug-in hybrid electric vehicles
Author :
Peschiera, Bernardo ; Williamson, Sheldon S.
Author_Institution :
Dept. of Electr. & Comput. Eng., Power Electron. & Energy Res. (PEER) Group, Concordia Univ., Montreal, QC, Canada
Abstract :
For the last two decades, significant improvements in charging technologies have been made. Moreover, novel applications have been proposed and tested, obtaining important and promising results. Inductive charging for electric vehicles (EV) and hybrid electric vehicles (HEV) is one of them. Because of the positive impact that this technology represents, it is important to understand the general characteristics of this novel application. This paper aims to give a general understanding of inductive charging systems for EV and plug-in HEV. The explanation of what is an inductive power transfer (IPT) transformer and how electrical power is transferred through air is also presented. The review of the electrical characteristics of an IPT transformer is shown: derivation of equations and presentation of the equivalent circuit. The analysis of the series-series (SS) compensation topology is covered. Additionally, to validate the theoretical concepts, an IPT transformer setup with a 5cm air gap is simulated. The simulation results where as expected from the theory. The power transfer capability of the system was increased from 0.05 W, with no capacitive compensation, to 87.6 W, with capacitive compensation. The plots and circuit simulations where obtained in MATLAB and SIMULINK respectively.
Keywords :
compensation; equivalent circuits; hybrid electric vehicles; inductive power transmission; power transformers; HEV; IPT transformer; Matlab; SS analysis; Simulink; air gap; capacitive compensation; electric vehicle charging technology; electrical characteristics; electrical power; equivalent circuit; inductive charging systems; inductive power transfer technology; plug-in hybrid electric vehicles; series-series compensation topology; Couplings; Equations; Hybrid electric vehicles; Integrated circuit modeling; Load modeling; Mathematical model; Topology;
Conference_Titel :
Industrial Electronics Society, IECON 2013 - 39th Annual Conference of the IEEE
Conference_Location :
Vienna
DOI :
10.1109/IECON.2013.6699889