Title :
Inter-operability considerations of the double-sided LCC compensated wireless charger for electric vehicle and plug-in hybrid electric vehicle applications
Author :
Weihan Li ; Han Zhao ; Tianze Kan ; Mi, Chris
Author_Institution :
Sch. of Mech. & Automotive Eng., Hefei Univ. of Technol., Hefei, China
Abstract :
This paper aims to discuss the feasibility of interoperation between wireless chargers with four basic compensation topologies and that with the double-sided LCC compensation topology. A brief analysis of double-sided LCC compensation topology is provided based on our previous researches. The paper mainly presents the design considerations of the different compensation topologies: (1) The secondary sides with series compensation and parallel compensation when they work with an LCC compensation topology as the primary side; (2) The primary sides with series compensation and parallel compensation when they work with LCC compensation topology as the secondary side. So in all, four topologies will be discussed respectively: LCC-S, LCC-P, S-LCC, and P-LCC. A wireless charger prototype with double-sided LCC compensation topology has been re-designed into LCC-S type wireless charger to verify the analysis. The efficiency is 95.8% from DC to DC even there is 275mm misalignment at 200mm gap.
Keywords :
DC-DC power convertors; hybrid electric vehicles; inductive power transmission; network topology; DC-DC power converter; LCC-P; LCC-S; P-LCC; S-LCC; double sided LCC compensated wireless charger topology; interoperability consideration; parallel compensation; plug-in hybrid electric vehicle application; series compensation; Batteries; Coils; Couplings; Power generation; Resonant frequency; Topology; Wireless communication; Compensation topology; EV/PHEV; interoperation; wireless Charging;
Conference_Titel :
Emerging Technologies: Wireless Power (WoW), 2015 IEEE PELS Workshop on
Conference_Location :
Daejeon
DOI :
10.1109/WoW.2015.7132809