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Energies 2017,10, 1217 27. Kurs,A.; Karalis,A.;Moffatt, R.; Joannopoulos, J.D.; Fisher, P.; SoljacˇicÂŽ,M.Wireless power transfer via stronglycoupledmagnetic resonances.Science2007,317, 83–86. [CrossRef] [PubMed] 28. Imura, I.;Uchida,T.;Hori,Y.Flexibilityofcontactlesspower transferusingmagnetic resonancecouplingto airgapandmisalignment forEV.WorldElectr.Veh. J.2009,3, 24–34. 29. Nakadachi, S.;Mochizuki, S.; Sakaino,S.;Kaneko,Y.;Abe,S.;Yasuda,T.Bidirectional contactlesspower transfer systemexpandable fromunidirectional system. InProceedingsof the2013 IEEEEnergyConversion CongressandExposition,Denver,CO,USA,15–19September2013;pp.3651–3657. 30. Gao,Y.;Ehsani,M.;Miller, J.M.HybridElectricVehicle:OverviewandStateof theArt. InProceedingsof the IEEEInternationalSymposiumonIndustrialElectronics,Dubrovnik,Croatia,20-23 June2005;pp.307–316. 31. Kim,H.;Kum,D.ComprehensiveDesignMethodologyof Input-andOutput-SplitHybridElectricVehicles: InSearchofOptimalConïŹguration. IEEE/ASMETrans.Mechatron. 2016,21, 2912–2923. [CrossRef] 32. Miller, J.M. Hybrid electric vehicle propulsion system architectures of the e-CVT type. IEEE Trans. PowerElectron. 2006,21, 756–767. [CrossRef] 33. Kim,D.;Hwang,S.;Kim,H.VehicleStabilityEnhancementofFour-Wheel-DriveHybridElectricVehicle UsingRearMotorControl. IEEETrans.Veh. Technol. 2008,57, 727–735. 34. Li,Y.;Yang, J.; Song, J.Nanoenergysystemmodelandnanoscaleeffectofgraphenebattery inrenewable energyelectricvehicle.Renew. Sustain. EnergyRev. 2017,69, 652–663. [CrossRef] 35. Khaligh,A.;Li,Z.Battery,ultracapacitor, fuelcell, andhybridenergystoragesystemsforelectric,hybrid electric, fuel cell, andplug-inhybridelectricvehicles: Stateof theart. IEEETrans. Veh. Technol. 2010,59, 2806–2814. [CrossRef] 36. Olson, J.B.;Sexton,E.D.Operationof lead–acidbatteries forHEVapplications. InProceedingsof the15th BatteryConferenceonApplicationsandAdvances,LongBeach,CA,USA,11–14 January2000;pp.205–210. 37. Edwards,D.B.;Kinney,C.Advancedleadacidbatterydesigns forhybridelectricvehicles. InProceedings of the 16thBatteryConference onApplications andAdvances, LongBeach,CA,USA, 12 January 2001; pp.207–212. 38. Cooper, A.; Moseley, P. Progress in the development of lead–acid batteries for hybrid electric vehicles. InProceedingsof theIEEEVehiclePowerandPropulsionConference,Windsor,UK,6–8September2006; pp.1–6. 39. Fetcenko,M.A.;Fetcenko,M.A.;Ovshinsky,S.R.;Reichman,B.;Young,K.; Fierro,C.;Koch, J.;Zallen,A.; Mays,W.; Ouchi, T. Recent advances inNiMHbattery technology. J. Power Sources 2007, 165, 544–551. [CrossRef] 40. Li,H.; Liao,C.;Wang,L.Researchonstate-of-chargeestimationofbatterypackusedonhybridelectric vehicle. In Proceedings of theAsia-PaciïŹc Power andEnergyEngineeringConference,Wuhan, China, 27–31March2009;pp.1–4. 41. Chalk,S.G.;Miller, J.F.Keychallengesandrecentprogress inbatteries, fuel cells, andhydrogenstorage for cleanenergysystems. J.PowerSources2006,159, 73–80. [CrossRef] 42. Balch,R.C.;Burke,A.;Frank,A.A.Theaffectofbatterypacktechnologyandsizechoicesonhybridelectric vehicleperformance and fuel economy. InProceedingsof the 16th IEEEAnnualBatteryConferenceon ApplicationsandAdvances,LongBeach,CA,USA,12 January2001;pp.31–36. 43. Viera, J.C.;Gonzalez,M.;Anton, J.C.;Campo, J.C.;Ferrero,F.J.;Valledor,M.NiMHvs.NiCdbatteriesunder highchargingrates. InProceedingsof the28thAnnualTelecommunicationsEnergyConference,Providence, RI,USA,10–14September2006;pp.1–6. 44. Gao, Y.; Ehsani, M. Investigation of battery technologies for the army’s hybrid vehicle application. InProceedingsof the56th IEEEVehicularTechnologyConference,Vancouver,BC,Canada,24–28September 2002;pp.1505–1509. 45. Pilot, C. TheRechargeableBatteryMarket andMainTrends 2014–2025. Available online: http://www. avicenne.com/pdf/Fort_Lauderdale_Tutorial_C_Pillot_March2015.pdf (accessedon29July2017). 46. Williamson, S.S.; Rathore, A.K.; Musavi, F. Industrial electronics for electric transportation: Current state-of-the-artandfuturechallenges. IEEETrans. Ind. Electron. 2015,62, 3021–3032. [CrossRef] 47. Cassani, P.A.;Williamson, S.S. Feasibility analysis of a novel cell equalizer topology forplug-inhybrid electricvehicleenergy-storagesystems. IEEETrans.Veh. Technol. 2009,58, 3938–3946. [CrossRef] 48. Baughman,A.C.; Ferdowsi,M.Double-tiered switched-capacitorbattery charge equalization technique. IEEETrans. Ind. Electron. 2008,55, 2277–2285. [CrossRef] 76
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Emerging Technologies for Electric and Hybrid Vehicles
Titel
Emerging Technologies for Electric and Hybrid Vehicles
Herausgeber
MDPI
Ort
Basel
Datum
2017
Sprache
englisch
Lizenz
CC BY-NC-ND 4.0
ISBN
978-3-03897-191-7
Abmessungen
17.0 x 24.4 cm
Seiten
376
Schlagwörter
electric vehicle, plug-in hybrid electric vehicle (PHEV), energy sources, energy management strategy, energy-storage system, charging technologies, control algorithms, battery, operating scenario, wireless power transfer (WPT)
Kategorie
Technik
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Emerging Technologies for Electric and Hybrid Vehicles