Electric vehicles for smart cities: trends, challenges, and opportunities evanthia a. nanaki - The e

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ElectricVehiclesforSmartCities:Trends, Challenges,andOpportunitiesEvanthiaA.Nanaki

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ElectricVehiclesfor SmartCities

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ElectricVehiclesfor SmartCities

Trends,Challenges,and Opportunities

DepartmentofBusinessDevelopmentandTechnology, CentreforEnergyTechnologies,AarhusUniversity, Herning,Denmark

EVANTHIAA.NANAKI

Elsevier

Radarweg29,POBox211,1000AEAmsterdam,Netherlands TheBoulevard,LangfordLane,Kidlington,OxfordOX51GB,UnitedKingdom 50HampshireStreet,5thFloor,Cambridge,MA02139,UnitedStates

Copyright©2021ElsevierInc.Allrightsreserved.

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Thisbookandtheindividualcontributionscontainedinitareprotectedundercopyrightby thePublisher(otherthanasmaybenotedherein).

Notices

Knowledgeandbestpracticeinthisfieldareconstantlychanging.Asnewresearchand experiencebroadenourunderstanding,changesinresearchmethods,professionalpractices, ormedicaltreatmentmaybecomenecessary.

Practitionersandresearchersmustalwaysrelyontheirownexperienceandknowledgein evaluatingandusinganyinformation,methods,compounds,orexperimentsdescribed herein.Inusingsuchinformationormethodstheyshouldbemindfuloftheirownsafety andthesafetyofothers,includingpartiesforwhomtheyhaveaprofessionalresponsibility.

Tothefullestextentofthelaw,neitherthePublishernortheauthors,contributors,or editors,assumeanyliabilityforanyinjuryand/ordamagetopersonsorpropertyasamatter ofproductsliability,negligenceorotherwise,orfromanyuseoroperationofanymethods, products,instructions,orideascontainedinthematerialherein.

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AcatalogrecordforthisbookisavailablefromtheLibraryofCongress ISBN:978-0-12-815801-2

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Dedication

“TheScienceoftodayisthetechnologyoftomorrow” E.Teller

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Contents Acknowledgmentsxi

1.Introduction1

1.1 SensingtheenergysceneryinthepostCOVID-era1

1.2 Thefutureofmobility2

1.3 Motivationforthebook4

1.4 Aimandobjectivesofthebook7

1.5 Structureofthebook8

1.6 Concludingremarks10 References11

2.Electricvehicles13

2.1 Introduction13

2.2 Electricvehicletechnologies15

2.2.1 Keytechnologiesofelectricmotors16

2.2.2 Batteryelectricvehicles19

2.2.3 Hybridelectricvehicles20

2.2.4 Plug-inhybridelectricvehicles24

2.2.5 Fuelcellelectricvehicles26

2.3 Energysourcesinelectricvehicles28

2.3.1 Energystorageunit28

2.3.2 Energygenerationunit33

2.4 Currentchargingtechnologyandavailablecharging infrastructureworldwide34

2.4.1 Electricvehicleschargingtechnology34

2.4.2 Chargingpowerlevelsandinfrastructure36

2.4.3 Typesofchargingsystems37

2.5 Impactofelectricvehicleschargingonelectricpowergrid39

2.6 Impactofvehicletogridtechnologytopowergrid42

2.7 Concludingremarks43 Listofabbreviations43 References44

3.Electricvehiclechargingwithinsmartcities51

3.1 Introduction51

3.2 Theconceptofthesmartcity52

3.3 Charginginfrastructure53

3.3.1 Typesofchargingsystems54

3.3.2 Chargingpowerlevels56

3.3.3 Standardization:Currenttrends59

3.3.4 Communicationprotocols62

3.4 Chargingeconomics62

3.5 Smartcharging64

3.5.1 Smartchargingstrategies67

3.5.2 Smartgrid69

3.5.3 Vehicle-to-grid70

3.5.4 Challengesandissuesinvehicle-to-gridtechnology78

3.6 Casestudies worldwideprojects78

3.6.1 Smartcharginginislandsystems84

3.7 Concludingremarks88 References89

4.Marketintroductionofelectricvehiclestourbanareas97

4.1 Introduction97

4.2 Businessmodels98

4.2.1 Businessmodelsintheautomotiveindustry:Theshiftto businessinnovation102

4.2.2 Businessmodelsforelectricvehicles103

4.2.3 Businessmodelsforelectricvehicles:Anintegratedapproach105

4.3 IntegratedinnovativebusinessmodelsforEVs(e-IIBMs): Implementationofanovelconcept111

4.4 Electricvehiclesmarketoverview113

4.5 Factorsinfluencingtheadoptionofelectricvehiclesinurbanareas115

4.5.1 Policydriversfortheimplementationofelectricvehicle businessmodelsinurbanareas116

4.6 Casestudiesofbusinessmodelsusedforthedeploymentof electromobilityinurbanareas121

4.6.1 Businesstoconsumerleasing125

4.6.2 Businesstoconsumersalesorleasingwithbatteryswapping125

4.6.3 Electricvehiclescarsharing126

4.6.4 Electricvehiclegridnexusbusinessmodels129

4.7 Concludingremarks134 References135

5.Climatechangemitigationandelectricvehicles141

5.1 Introduction141

5.2 Transportaspartoftheenergysystem145

5.3 Transportenergyconsumption146

5.4 Emissionsfromthetransportationsector148

5.5 Electricvehiclesandenergytransition:majorchallengesto energytransition149

5.6 Lifecycleassessment151

5.6.1 Lifecycleassessmentandelectricvehicles153

5.6.2 Lifecycleassessmentprinciples156

5.6.3 Overviewofavehiclelifecycleassessmentstages156

5.7 Comparativelifecycleassessmentofabatteryelectricvehicles andaninternalcombustionenginevehicle thecasestudyof EuropeanUnion169

5.7.1 Goalandscopedefinition170

5.7.2 Lifecycleinventory170

5.7.3 Resultsofcomparativelifecycleassessment171

5.8 Concludingremarks174 References176 Furtherreading180

6.Electricvehiclecapitals casestudies181

6.1 Introduction181

6.2 Globalelectricvehiclesales:agrowingmarket182

6.2.1 Charginginfrastructure:recentdevelopments185

6.3 Electricvehicleadoptionpolicies:recentdevelopments187

6.4 Europe191

6.4.1 TheNetherlands192

6.4.2 Spain195

6.4.3 Norway198

6.4.4 UnitedKingdom204

6.5 UnitedStatesofAmerica206

6.5.1 California208

6.5.2 NewYorkCity215

6.5.3 Seattle,Washington218

6.6 China220

6.6.1 Beijing225

6.6.2 Shanghai227

6.6.3 Shenzhen228

6.6.4 Tianjin230

6.7 Japan230

6.7.1 GotoIslands232

6.7.2 Tokyo233

6.8 Comparativeanalysisofcities234

6.8.1 Electricvehiclesalesandcharginginfrastructureavailability234

6.9 Concludingremarks238 References239

Index 249 x Contents

Acknowledgments

Thisbookwouldnothavebeenpossiblewithoutthehelpandsupportof acertainnumberofpeople,andIwouldliketoexpressinthisparagraph myenormousgratitudetoallofthem.IwouldliketothankBrian Romer(ExecutiveEditor,Elsevier),forprovidingmethemotivationto starttheprojectofthisbook.Hegavemetherightsupportandsuggestionstoworkonthisbook.IwouldliketothankJohnLeonard(Editorial ProjectManager,Elsevier),whoprovidedgreatassistanceintheproductionofthisbookandshowedgreatpatienceinextendingthedeadlines! Finally,IwouldliketothankAssoc.ProfessorGeorgeXydis(Department ofBusinessDevelopmentandTechnology,UniversityofAarhus),forhis valuableadviceandextensivediscussionsaroundmywork.Manythanks alsotomyparentsandmyfamilyfortheircontinuousloveandsupport.

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CHAPTER1 Introduction

1.1SensingtheenergysceneryinthepostCOVID-era

TheWorldHealthOrganization(WHO)declaredCOVID-19apandemiconMarch11,2020(WHO,2020),causingahugeimpactonpeople’slives,families,andcommunities.Thecoronaviruspandemiccreated anunprecedentedglobalhealthandeconomiccrisis.Apartfromthetoll ofearlydeaths,economicactivityhasstalledandstockmarketshavetumbled,whileawiderangeofenergymarketshavebeenseverelyaffected, includingcoal,gas,andrenewables.

TheCOVID-19pandemicandthecontainmentpoliciesaimedat controllingithavechangedconsumptionpatterns.Historicalevidence indicatesthatsuchmajordisruptionsinthesocietalaxisarenotalwaysa temporarycrisisandcanfundamentallyreshapesocialattitudesandhabits, leadingthustonewpoliciesandwaysofworking,aswellasconsumer needsandbehaviors.Forinstance,theimpactofWorldWarIIon

women ’sparticipationintheworkforceacceleratedthefemaleworkforce participationafterthewar(GoldinandOlivetti,2013).

Inregardtotheenergysector,itisnotedthattheoutbreakhascontributedtoadecreaseddemandinglobaloildemand especiallyinthe transportsector aggravatedbyasupplyshockduetotheendofrestraints onproductionfromOPECproducersandRussia(OPEC 1 ).Thescale ofthecollapseinoildemand,inparticular,iswellinexcessoftheoil industry’scapacitytoadjust.As3billionpeoplearoundtheworldwere underlockdown,duetothepandemic’soutbreak,lowpricescouldn’t stimulateareactionfromconsumers.Onthecontrary,arapidbuildupof oilstockswasstartingtosaturateavailablestoragecapacity,pushingdown pricesfurther.Asamatteroffact,onApril21,2020USoilpricesturned negativeforthefirsttimeonrecordafteroilproducersranoutofspaceto storetheoversupplyofcrudeoilleftbythecoronaviruscrisis,triggering anhistoricmarketcollapse.ThepriceofUScrudeoilsankfrom$18a barrelto $38inamatterofhours,asrisingstockpilesofcrudethreatenedtooverwhelmstoragefacilitiesandforcedoilproducerstopay buyerstotakethebarrelstheycouldnotstore(TheGuardian,2020).

Movingforward,manyqueriesinregardtotheenergysceneryof tomorrowarearising.Theseinclude,interalia:

• Howtheenergysupplychainsofcleanenergypathwayswillemergeas thepandemicreachesitsturningpointandtheworldbeginstorecover?

• Willthecoronavirusweakenglobalinvestmentsincleanenergyand broadereffortstoreduceemissions?

• Istheenergydemandgoingtobefollowedbyasustainableenergy consumption?

Governmentsandpolicymakersshouldnotlosesightoftheclimatechallengeandcleanenergysolutionsastheycraftstimuluspackagestocounter theeconomicdamagefromCOVID-19.Asthiscrisisunfolds,aconversation aroundenergysecurity,reliability,andenergyscarcitymightarise,asthiscrisis hasbroughtintolightthesignificantroleoftheelectricitysector,andpointed outtheneedforpolicymakerstotakeallnecessarymeasurestoensurethat currentandfuturesystemswillremainreliable(takingintoconsiderationtheir transformationviatheriseofcleanenergytechnologies).

1.2Thefutureofmobility

Ascitiescontinuetogrow,theneedforasafe,reliable,andaffordablesustainabletransportationisanecessity.Inordertoaddresstheissuesof

climatechangeandurbandevelopmentitisimperativetoshifttoflexible andlong-termsustainablepolicyinstruments.Theenergytransitiontoa zero-carbonfuturenecessitatesthedeploymentandadoptionofinnovativestrategicplansaimingtodevelopinnovativetechnologies,tomodel techniques,toreducegreenhousegasemissions(GHG),andtocreatea sustainabletransportsystemthatwillsupporteconomicgrowthandother socialandenvironmentalcobenefits.Inthisdirection,duringthepast years,therehasbeenagrowinginterestindisruptivemobilitytechnologiessuchasautonomousdriving,connectivity,hydrogen,electrification, andsharedmobility.

Takenintoconsiderationthefactthatthetransitiontozero/lowcarboncitiesischaracterizedbyahighershareofrenewableenergysources andelectricvehicles(EVs),itisremarkedthattheintegrationofrenewableenergyandelectromobilityshouldbeapriorityfortheenergyand transportationsectors.Inthisdirection,governmentshaveenactedsubsidy programs,supportingtheinstallationofcharginginfrastructure,and havedevelopedregulatoryinitiativestosupportthedeploymentand managementofEVs.Infact,somegovernments includingtheUnited Kingdom haveannouncedthattheywillbanthesaleofnewfossilfueledautomobilesafter2035(Maclellan,2020),5yearsearlierthanoriginallyplanned,inanattempttomitigatetheadverseeffectsofairpollution.Furthermore,thecarmanufacturersthatwereinitiallyskeptical aboutEVsarenowcommittingbillionsofdollarstotheirproduction.Itis estimatedthatby2022therewillbe127differentfullybattery-electriccar modelsavailableforpurchaseintheUnitedStates(LutseyandNicholas, 2019).Moreover,thedeploymentofnewdisruptivetechnologiesenables theexploitationofrenewableenergyasEVscanbechargedusingsolaror windpower.

Inthiscontext,itcanbestatedthatfuturemobilitytrendsaregoingtobe shapedbytechnologicaladvancementsinEVinfrastructureandrelative investmentsfromautomakers,drivingbythiswaythegrowthofEVs.In addition,consumerbehavior,technologicaladvancementsinbatterytechnology,economiesofscaleinEVproduction,nativeEVdesign,aswellascooperationamongoriginalequipmentmanufacturers(OEMs)(aimingtoreduce costs whicharecurrentlystillhigherthanforcomparableinternalcombustionenginevehicles)areofparamountimportancefortheenergytransition tolow-carbonmobility.Duringtheupcomingyearsmarketandcompetition willbeacriticalfactorforthesuccessfuldeploymentofelectromobilityasstakeholdersaregoingtooperateinaneconomicslowdown,butatthesame

timetheywillneedtoreshapetheirbusinessmodelsinatimeofheightened cityregulation,technologydisruptions,andchangingconsumerneeds.

ItshouldbenotedthatdespitethefactthatEVsalesgrewtomore thantwomillionunitsgloballyin2018(increaseof63%onayear-onyearbasis),theystillrepresentafractionoftheoveralllight-vehiclemarket (withapenetrationrateof2.2%)(Hertzkeetal.,2019).Furthertothis, theCOVID-19outbreak,whichresultedinsignificantrestrictionofelectricvehicleproduction,isgoingtoaffecttheglobalelectricvehiclesales inmajormarkets.Theroleofgovernmentstimuluspackages(i.e.,via infrastructurerehabilitation)inthefutureisexpectedtosupportandto boosttheEVmarket.

Inregardtothefutureofmobility,thedecisiveinfluenceofcitiesis highlightedintheenergytransitiontozero-carbonmobility,giventhat theyconstitutethemostimportantstakeholders,astheirgovernmentscan reconstructandremodeltheirmobilitysystems.Thisisespeciallytruefor citiesundertheframeworkofsmartcities,whichentailandintegrateinter aliatheconceptsofsustainableurbanmobility,sustainablebuiltenvironment,infrastructuresandprocessesinenergy,informationandcommunicationtechnologiesandtransportation,policyandregulation,integrated planningandmanagement,standards,aswellasbusinessmodelsand funding.

Inviewoftheabove,manyqueriesareraisedregardingthefutureof mobility.Areconventionalgasoline-poweredcarsgoingtobereplacedby EVs?Willgasolinestationsbesupersededbyfastchargingstations?Will thetransportationsectorofthefuturebeelectrified?AreOEMsandtheir suppliersabletomaketheirEVsupplychainsasefficient,robust,andsustainableasthoseoftheirconventionalvehicles?Andwillthecharging infrastructurekeeppacewiththegrowingEVdemand?Asthesequestions areatthecoreoftheenergyandtransportdebatesthefollowingsections willtrytoshowcasehowthisbookcancontributetothisdebate.

1.3Motivationforthebook

Thisbookisaresponsetothehighdemandofpeople,scholars,academics, industries,policymakers,aswellasallinvolvedstakeholdersthatnowadays wanttohaveknowledgeabout:

• Currenttrendsinelectricvehicletechnology.

• Charginginfrastructurewithintheconceptofsmartcities(smartgrid andsmartenergycharging).

• Electricvehiclemarketpenetrationandrelativebusinessdevelopment opportunities.

• Theclimatechangerisksassociatedwiththepollutantsemittedfrom theuseofconventionalandEVs.IstheusageofEVsbeneficialtothe reductionofgreenhouseemissions,aswellastothereductionof harmfulpollutantsemittedfromtailpipes?

• Thefactorsthathavecontributedtosupportingestablishmentand growthinPEVmarketsindifferentregionsandcitiesaroundthe world.Howthesecitiesandregionshavesuccessfullydevelopedand deployedelectricvehiclemobilitystrategyplansandroadmaps.

Startingfromadeepanalysisoftheabovemainissues,basedonthestatus oftheliteratureandongoingresearchprojects,thisbookpresentsanintegrated pathofnewtechnologiesthatallowthedesignofinnovativesolutionsforEVs. Thisbookaddressestheabovementionedquerieswithinanintegrated approach,takingintoconsiderationnotonlytheelectricvehicletechnologybutalsothetransportsystem’srequirementsinconjunctionwiththe potentialofsmartenergysystemswithintheframeworkofsmartcities (Fig.1.1).ThedeploymentofEVsincitiesisbeinginvestigatedandinformationonbasicresearchandapplicationapproachesisgiven.Thebenefits oftheuseofEVsintermsofreductionofgreenhousegasesarealso assessed.Thisbookalsodiscussesthebusinessmodelsthatwillinitiate changesinthevehiclemarketandinpeople’spersonalchoicesontransportationmeans.CasestudiesareemployedinordertoillustratehowEVs canbeusedtosubstantiallyreducecarbonemissionsandcutdownrelianceonfossilfuels.Thebookalsotracestrends,innovations,challenges, andrelativeopportunitiesforfurtherdevelopment.

Businessmodelsenablingandfacilitatingtheimplementationofelectromobilityinthetransportationfleetfromdifferentviewpoints,including environmental,economic,political,andotheraspects,arepresented.The incentivesforthepurchaseofEVsindifferentdevelopedcountriesincludingEurope,theUnitedStates,China,andJapanhavebeenconsidered andthemostimportantconcernsaboutEVsfromthecustomers’ pointof viewhavebeenhighlighted.Furthermore,thechallengesimposedonthe powersystem,whichareaggravatedbyincreasingthepenetrationofthe EVsintransportationfleet,arealsoexplained.

Keyissues,suchastheassessmentofalternativemarketdeployment approaches,theinteractionbetweengridinfrastructureandvehiclesand theoperationalreliability,theassessmentofelectromobilitydeploymentin urbanareasintermsofGHGemissions,aswellascurrenttrendsof

developmentschemes,areaddressed withinanintegratedframework.In thiscontext,thisbookinvestigatestheroleofEVswithintheurbanarea andespeciallywithintheconceptofthe “smartcity.” Asthereisalackof asystematicandintegrativeapproachtothedeploymentofEVs,this bookcoverstheneedforanintegratedsystemtakingintoaccountthe energysystem,thevehicletechnology,andthetransportsystem(Fig.1.1).

Basedontheabovementioned,themotivationforthisbookliesin:

• Thesignificanceofamultidisciplinaryapproachstartingfromconceptualdesigns(modeling)totheimplementationoflow/zero-carbon strategyplansfortheestablishmentofcarbon-freecities.

• Thepresentationofanintegrated/holisticpointofviewwithregardto thedeploymentofEVsincities,whichdoesnotfocusonlyonthe technicaldetails,butalsoonthesocial,political,andeconomicaspects.

Figure1.1 Integratedapproachforelectricvehiclesforsmartcities.

• Thedeterminationofwhathasbeendoneuntilnowinthemarketof EVsaroundtheworld.

• Thepresentationofanoverviewofkeyconcepts,theories,anddiscoursesinregardstotheimpactoftheautoindustryandvehiclesto climatechange.Thisassessmentandsynthesisoftheexistinginformationisinlinewiththeconceptoflifecycleanalysis(LCA).

• Theinvestigationofthepotentialityofanewenergyeconomybased onrenewablesources,wheretheroleofEVsisofgreatsignificance.

• Theidentificationofthegapsintheexistingresearchthatthisbookis endeavoringtoaddress,positioningthisbookinthecontextofpreviousresearchandcreatingaresearchspaceforit.

• Theproductionofarationaleandtoestablishtheneedforthisstudy andthusjustifyitsoriginality.

• BridgingthegapbetweentheacademicunderstandingofEVsand theirrelativedeploymentwithregardtoacity’sfunctionswiththe municipalplanningoforganizationalstructures.

1.4Aimandobjectivesofthebook

EVswithinthescopeofsmartcitiesaregainingrecognitionasalternative waysthroughwhichalow-zerocarbonsocietycanbepursued. Discussionoftheconceptofelectromobilityanditsinteractionwiththe cityandgridismadeinordertopointouttheneedforanintegrated approach.Inthiscontext,thebooktriestoplottheplethoraofpossible pathwaysbetweenwhathasalreadybeenachievedandwhatisstill needed.Thisisachievedbyexploringandassessingthewaysthrough whichEVscanbeintegratedintoacity’stransportationsystemandhow thismaycreateacompletesetofnewtechnologiesandserviceofferings, offeringatthesametimeabetterqualityoflife.

Thegoalofthisbookistoconstituteavaluabletoolthatcanbehelpfultostakeholdersanddecision-makersintheprocessofregionalandstrategicplanning,withreferencetosustainabletransportdesign.Itaimstobe helpfulalongthewayinpolicy,practical,conceptual,andvisionaryways. Thusitaimstohelpindecision-making,withregardtothenationaland sustainableenergydesigns,andtodemonstratehowEVscanbestbeutilizedwithincities.Thebook’sobjectiveistoprovideusefulinsightto policymakers,urbanplanners,engineeringconsultancies,scientists, researchers,students,aswellascitizensinterestedinsupportingasmooth transitiontothefutureenergylandscape.Furthermore,thebookaimsto

pointoutthatthecombinationofexternalfactors,suchasstringentemissionsregulations,risingfuelprices,financialincentives,intelligentload management,andexploitationoflocalrenewables,cancontributetoa decarbonizedurbanenergyfuture.

1.5Structureofthebook

Thebookdiscussesthechallengesandfuturetrendsofelectromobility withintheconceptofsmartcities encompassingaspectssuchassmart charging,marketdevelopmentandmarketintroduction,climatechange mitigation,aswellassuccessfulcasestudiesofelectricalvehiclecapitals aroundtheworld.Thebookisstructuredintosixsectionsthatarebriefly describedherebelow; Fig.1.2 showsthebook’sflowchart.Itisnotedthat thebookisdesignedinsuchawaythatitallowseachchaptertoberead alone,whileatthesametimeallchapterscanbegroupedtogether,in ordertoaidthereader(Fig.1.2).

Followingthisintroductorychapter, Chapter2,ElectricVehiclespresents thebackgroundofthebasic principlesofelectricvehicletechnologies,the currentstatusofkeyautomotivetechnologies,andabriefpresentationofdifferenttypesofEVs(includingbatteryelectricvehicles BEVs;hybridelectric vehicles HEVs;pluginhybridelectricvehicles PHEVs;andfuelcellelectricvehicles FCEVs);thechargingpowerlevelsandinfrastructurearealso introduced.Thechapterprovidesthenecessarybackgroundforunderstanding theseconcepts,aswellasbasicprinciples,generaldefinitions,andpractical applications.Thescopeofthischapteristoprovidebasicinformationabout currenttechnologies,soastobeabletooutlinethedriversthatwillshape futuredemandandtrends.

Figure1.2 Flowchartofthebook’sstructure.

Chapter3,ElectricVehicleChargingWithinSmartCitieselaborates onthetransitiontoanewageofmobilityandthechallengesofelectromobilitywithintheconceptofthesmartcity.Smartcitiesplayanimportantroletowardthetransitiontoalower-carbonurbanenvironmentby providingallthenecessarytechnologicaladvancementsforadequate recharginginfrastructure.Thischapterreviewstheconcept,framework, advantages,challenges,andoptimizationstrategiesofvehicletogrid (V2G).Thebenefits,services,andpotentialbarriersoftheV2Gtechnologyimplementationarediscussed.Inaddition,variousV2Goptimization techniquesareanalyzed.Inaddition,differentstandardsandvariousapplicationsofthemainresultsofsmartgridprojectsarepresented.

Chapter4,MarketIntroductionofElectricVehiclestoUrbanAreas thendetailsseveralofthemoreinnovativeapproachestomobility,which havethepotentialofdisruptingtraditionalvaluechainsandcouldenable furtheruptakeofEVs.Inaddition,thischapterreviewsthelatestdevelopmentsinnewregistrationsandthestockofEVs,lookingprimarilyatelectriccarsandfocusingonthedevelopmentsthattookplacein2019aswell astrendssince2010.StockandsalesfiguresareassessedagainstpolicysupportschemesandcountrycommitmentsonEVdeployment.Thischapter aimstoprovidereaderswithausefulinsightintothemarketandofthe businessmodelstheyrequiretoexcelintoday’srapidlyshiftingautomotiveindustry anindustryfitforthe21stcentury,whichembracesand embodiestheconceptsofelectrificationandsustainability.Furthertothis, thetermof integratedinnovativebusinessmodelsforEVs (e-IIBMs)isbeing introduced.Finally,manycasestudiesofbusinessmodelsemployed worldwideaswellastheirrelativeimpactsarepresented(carleasing,car sharing,V2G,batterysecondusage,etc.).

Chapter5,ClimateChangeMitigationandElectricVehiclespoints outthesignificantrolethatelectromobilityplaysinmitigatingclimate change basedontheParisDeclarationonElectro-MobilityandClimate ChangeandCalltoAction,whichbringstogetherindividualandcollectivecommitmentstoincreaseelectromobilitytolevelscompatiblewitha less-than2-degreepathway.EmissionsofEVsareassessedbytheemploymentofLCA.Thischapterallowsaresearcher/practitionertoconduct siteanduser-specificLCAswhichreflecttheprevailingconditionsand individualusepatterns.Forthisreason,thebasicsonLCAinregardsto EVsarealsopresented.Thegoalofthechapteristoanalyzeexistingvehicletechnologies(conventionalversusalternative)andhighlighttheirenvironmentalburdens.Relevantguidelinesandstudiesonlifecycle

assessmentofEVsarepresented.Inthisdirection,acase-drivenLCAfor EVsispresentedindetail.Thecorrespondingsolutionsarediscussed;the potentialbenefitsintermsofclimatechangemitigationaswellastherelativeimpactsofeachLCAstageareanalyzed.

Chapter6,ElectricVehicleCapitals CaseStudiesreportssomesuccessfulcasestudiesfromelectricvehicledeploymentincitiesalloverthe world.Thischapterfocusesonandreferstostatisticaldataevidencingthe highpercentagesofalternativevehiclepenetrationaswellascharging infrastructureincitiessuchasLosAngeles,Amsterdam,Oslo,Shanghai, andTokyo.ThechapterdemonstratestheutilizationpatternsofEVsin manycitiesandexploresfleetintegrationaspectsallovertheworld.In additiontoanalyzingtheelectricvehiclesalesandcharginginfrastructure inthesemarkets,thischapteridentifiesanddiscussestheuniquepolicies, actions,andprogramsinplacethathaveenabledthissuccess.

Insummary,thisbookaddresseskeyissuessuchastheassessmentof alternativemarketdeploymentapproaches,theinteractionbetweengrid infrastructureandvehiclesandtheoperationalreliability,theassessmentof electromobilitydeploymentinurbanareas,aswellasthecostsandbenefitsofdevelopmentschemeswithinanintegratedframework.Inthiscontext,thisbookinvestigatestheroleofEVswithintheurbanareaand especiallywithintheconceptofthe “smartcity.” Asthereisalackofa systematicandintegrativeapproachtothedeploymentofEVs,thisbook coverstheneedforanintegratedsystemtakingintoaccounttheenergy system,thevehicletechnology,andthetransportsystem(Fig.1.1).

1.6Concludingremarks

Everythingisconnectedtoeverythingelse;thereforeinordertobringa zero-carbonemissionshiftintransportation,itisimperativetothinkholistically.Citiesarephysicallyformedofandaroundenergyinfrastructure: theyareincreasinglyconnectedandsophisticatedbundlesofgeneration, distribution,networking,andstoragesystemsbridgingpower,thermal energyandmobility,storage,andnetworks.Urbancentersandtheir neighborhoodsanddistricts,butalsotheirwiderregionsareofcrucial importanceintheenergytransition,whichisgoingtodefinethe21st century.Inthismanner,EVsareonlypartofthisequation,assmartcities viaaholisticsystemoperation shouldshapethefuturemobility pathways.

Citiesshouldscaleupgreenpublictransportationandpublictransport ondemand,andincreasethefocusonpedestriansandcyclists,aswellas autonomousvehiclesand “mobilityasaservice”.Increasingfreightby railwayandintroducinggreenfreightdistributioninthecity,zeroemissionheavy-dutyvehiclesandzero-emissiontaxisshouldbepartofa city’sholisticapproachtobecomingfossilfuel-free.Greenpublicprocurement,goodsandservicesdeliveredbyzero-emissionvehicles,andgood parkandridesolutions,incombinationwithEVs,andanincreaseduseof intelligenttrafficsystems(ITS)andartificialintelligence(AI)tomakethe EVuseswift,efficient,anduser-friendly,areequallynecessary. Furthermore,thisenergytransitiontoazero-carbonfuture,shouldbe accompaniedwiththeuseofrenewableelectricity,aswellaswiththe necessaryrightregulatoryframeworkandfinancialincentives,aswellas withthepublic privatecooperationandtheresiliencetosucceed.

Insummary,theglobalenergyfuturedependsonalotofvariables, includingthepoliticalwillingnesstousegreentaxes,regulations,and otherincentivestomaketheshifttozero-carbonenergyalternatives; technologicaldevelopmentsforvehicles,batteries,chargers,autonomous vehicles,AI,andITS;globalpricedevelopmentsforalternativefuelssuch asgasolineanddiesel;nationalandtransnationalcooperation,involving localgovernment,nationalgovernment,andprivatebusinesses;global cooperationandfreeexchangeofexamplesandideas;andsoundbusiness modelsthatcanhelpfinancethegreenshiftintransport.

References

GoldinandOlivetti,2013.Shockinglaborsupply:areassessmentoftheroleofWorld WarIIonU.S.women’slaborsupply. , https://www.nber.org/papers/w18676 . Hertzke,P.,Müller,N.,Schaufuss,P.,Schenk,S.,Wu,T.,2019.Electric-Vehicle AdoptionDespiteEarlyGrowingPains.McKinseyandCompany.Availablefrom: https://www.mckinsey.com/industries/automotive-and-assembly/our-insights/ expanding-electric-vehicle-adoption-despite-early-growing-pains Lutsey,N.,Nicholas,M.,2019.UpdateonElectricVehicleCostsintheUnitedStates through2030.TheInternationalCouncilonCleanTransportation.Availablefrom: https://theicct.org/sites/default/files/publications/EV_cost_2020_2030_20190401.pdf Maclellan,K.,2020.Electricdream:Britaintobannewpetrolandhybridcarsfrom2035. Reuters. , https://uk.reuters.com/article/us-climate-change-accord/electric-dreambritain-to-ban-new-petrol-and-hybrid-cars-from-2035-idUKKBN1ZX2RY . (accessed21.05.20.).

TheGuardian,2020.Oilpricesdipbelowzeroasproducersforcedtopaytodisposeof excess. , https://www.theguardian.com/world/2020/apr/20/oil-prices-sink-to-20year-low-as-un-sounds-alarm-on-to-covid-19-relief-fund . (accessed22.4.20.). WorldHealthOrganization WHO,2020. , http://www.who.int .

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CHAPTER2

Electricvehicles

2.1Introduction

Overthepastdecades,thegrowingconcernoverclimatechange,energy independence,andsecurityofenergysupplyhaveacceleratedthepathto thedecarbonizationofthetransportsector.Tobemorespecific,road transportaccountedfor21%ofglobalenergyconsumptionand17%of globalcarbondioxide(CO2)emissionsin2013(IEA,2015).Carbon emissionsfromroadtransporthavebeengrowingsteadilyandwillcontinuetodosoifroadtransportisnotprogressivelydecoupledfromfossil fuels(EIA,2014).Itisevidentthatstabilizingglobaltemperatureincrease tobelow2°Crelativetopreindustriallevelsnecessitatesacombinationof improvedfuelefficiencyanddeploymentofalternativefuelsinroadtransport,particularlyadvancedbiofuels,electricity,andhydrogen(IEA,2015).

Forthereasonsnoted,thisgrowingconcernaboutclimatechange triggeredagreementsbetweenEUcountriestocuttheiremissionsby80% by2050,tostabilizeatmosphericCO2 at450ppm,inordertokeep globalwarmingunder2°C.Itisnotedthatthroughtheseagreementsthe roadtransportsectorisexpectedtoreduceitsemissionsby95% (Poullikkas,2015;Wageretal.,2016).Furthermore,asurbanpollution duetovehicleuseisresponsibleforserioushealthproblems,thecreation ofalow-carbontransportationsystemisofgreatsignificanceforasustainablefuture(Nanakietal.,2015;NanakiandKoroneos,2016).Inthis direction,alternativevehicletechnologies(AVT),suchaselectricvehicles (EVs),areapromisingtechnologythatcantackleincreasedCO2 emissions andairpollutants,aswellasnoisecomingfrompassengercarsandlight commercialvehicles.Roadtransportelectrificationisexpectedtoplaya majorroleinachievingthesegoals,giventhattheelectricpowertrainis significantlymoreenergyefficientthantheconventionaloneandthe electricityusedcouldcomefromrenewableenergysources.

Governmentsaroundtheworldareimplementingdifferentinitiatives, policies,andprogramsforwideruptakeofEVs.IncentivestoEVs’ purchasecosts,developmentofcharginginfrastructure,andtheincreaseof publicawarenessofEVs’ benefitsareamongtheactionstakentopromote

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