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SmartManufacturinginAutomotive:
Deploymentandimpact
CenterforAutomotiveResearch|May2026
Executivesummary
TheautomotiveindustryisenteringanewphaseofAI/machinelearning(ML)andautomation.Thequestionformanufacturersservingtheautomotive,tire,andbatterymarketsisnolongerwhethertoadopt,buthowquicklyandwheretoputsmartmanufacturingtowork,accordingtoCenterforAutomotiveResearch
(CAR)analysis.
Automakersandsuppliersalreadyoperatewithindustry-leadingautomation,particularlyinbody,paint,
andwelding.Whatischangingiswhereit’sapplied.Manufacturersgloballyaremovingintoareasthathavehistoricallybeenhardertoautomate,includingelectronicsassembly,validation,productioncoordination,andlogistics.AI/MLissimultaneouslyimprovingpredictivemaintenance,inspectionaccuracy,andsystemperformanceacrossexistingoperations.
Thedriversareclear:morecomplexproductionenvironments,persistentwarrantyissues,rising
commoditycosts,andglobalcompetitionareleavinglessroomforlate-stagefixesandreactive
management.Automationisalsoenablingonshoringbysupportingcost-competitiveproductionundertightlabormarketconditions.
Theresultsaremeasurable.Manufacturersreportedreductionsinunplanneddowntimeofupto50%
inselectapplications,overallequipmenteffectiveness(OEE)improvementsofapproximately5%,and
throughputgainsof5–7%fromreal-timeproductionanalytics.Autoliv’sproductivityacceleration,from
roughly4%in2023toover9%in2025,isoneofthemoreconcreteindicatorsofwhatsustainedinvestmentcandeliver,inCAR’sview.Puttingthisintoperspective,DurableGoodsManufacturingaveragedjust2.7%
productivitygrowthin2025,whileMotorVehicleParts(NAICS3363)datathrough2024rangedfrom2.6%to5.9%annually.
Theimpactisalreadyvisibleontheplantfloor.TeamsusingadvancedAI/MLtechnologiesareidentifying
issuesearlier,reducingdowntime,andimprovingprocessconsistencyacrossplants.Thesegains,however,arenotuniform.Differencesinhowcompaniesembracesmartmanufacturing,particularlyinquality,uptime,andprocesscontrols,arebeginningtoseparatehigherandlower-performingmanufacturersandsuppliers,accordingtoCARresearch.
Leadingcompaniesareextendingthesecapabilitiesacrossplantsandprocessfunctions,andtheyare
increasinglyexpectingthesameoftheirsuppliers.Theindustryandsupplybasearealsodevelopinggapsthatcarrystrategicimplicationsforsourcing,programexecutionandlong-termcompetitiveness.
RockwellAutomation•SmartManufacturinginAutomotive:Deploymentandimpact|02
RockwellAutomation•SmartManufacturinginAutomotive:Deploymentandimpact|03
Automotive:Industry-leadingSmartManufacturing
The2026RockwellAutomationStateofSmartManufacturingsurveyplacesautomotivealongsidehigh-
performing,hi-techandlifesciencesinoveralldeploymentandfutureinvestmentintent.Thematrixbelow
mapsindustriesbycurrentdeploymentlevelandplannedinvestment;automotivesitsintheleadingquadrantonbothdimensions.
ManufacturingindustrySmartManufacturingmatrix
Futureinvestment/Strategicintent
—
—
—
—
—
—
Pulp&PaperWater/Wastewater
Warehouse
Home&PersonalCareChemical
20406080100
Currentdeployment/Digitalmaturity
80—
60—
40—
20—
0—
0
AerospaceFood&Beverage
Metals
Hi-Tech
Automotive
LifeSciences
Energy
Mining
Oilandgas
100—
Figure1.Manufacturingindustrysmartmanufacturingmatrix
Source:11thAnnualStateofSmartManufacturingReport,RockwellAutomation
Methodology:Thematrixcomparesindustriesbasedontwocompositemeasuresaggregatedacrossallsmartmanufacturingtechnologycategories.
TheDigitalMaturityIndex(X-axis)measurescurrentadoptionusingthepercentageofrespondentsreportingthattheyhave“alreadyinvested”inrelevanttechnologies.TheFutureIntenttoInvestIndex(Y-axis)measuresplannedadoptionusingthecombinedpercentageofrespondentsplanningtoinvest
withinthenext12monthsandwithinthenextfiveyears.
RockwellAutomation•SmartManufacturinginAutomotive:Deploymentandimpact|04
Theautomotiveindustryalreadyoperateswithextensiveautomationacrossstamping,body,paint,welding,andfinalassembly—builtforrepeatability,throughput,andprecision.Whatthesesystemswerenotoriginallydesignedtodo,however,istomanagereal-timevariability,anticipateequipmentfailures,orcoordinate
acrosscomplexproductionsequences.
CARresearchidentifiesthenextphaseforautomationsystemswithinautomotiveasextension–not
replacement.AIandexpandedautomationarereachingintoareasforautomakersandsuppliersthathavehistoricallydependedonoperatorexperienceandjudgment.Thefollowingillustrateswherethosegaps
persistandwhatisnowpossible.
HISTORICALCHALLENGE
SMARTMANUFACTURINGPATHFORWARD
Quality&inspection
Manualchecksandpost-processvalidationcreateinconsistencyatscale
ProcessControl
Weld,torqueandcalibrationparametersrelyonoperatorjudgement
Inlinesensorsandvisionsystemsenablecontinuous,automateddefectdetection
Automatedprocesscontrolreplacesoperator
judgementwithdefined,measureablestandards
Electronicsintegration
Legacyautomationwasnotdesignedtoaddressnewfailuremodes
AI-assistedvalidationadaptstoevolvingvehiclearchitecturesandfailuresignatures
Productioncoordination
Disruptionresponsedependsonmanualintervention
Maintenance
Reactiveandschedule-baseddespiteavailablereal0timeequiopmentdata
Connectedplatformsenabledynamic
re-sequencingwithminimalhumaninput
Predictivemodelsshiftoperationsfrom
time-basedschedulestocondition-basedaction
Flexiblepowertrainstrategies,whereICE,hybrid,andBEVvariantsareproducedonthesameassemblylines,havecompoundedthesechallenges.Sohasthesurgeinelectroniccontent,whichbringsgreatersoftware
complexity,moredemandingcalibration,andadditionalvalidationsteps.Theneteffectisaproductionenvironmentfarmorecomplexthanevenadecadeago,onethatincreasinglydemandssystem-level
managementandsmartmanufacturingsolutionsovertask-levelautomation.
RockwellAutomation•SmartManufacturinginAutomotive:Deploymentandimpact|05
AutomotiveIndustry–SmartManufacturing:Whynow
ThepushtoexpandautomationanddeployAI/MLisbeingdrivenbyaconvergenceofoperationalandcompetitivepressures,whichhaveintensifiedoverthepastseveralyears:
Productioncomplexity
Mixedpowertrainproductionhasincreasedthenumberofvariablesthatmustbemanagedduringdaily
vehicleassemblyoperations.Whereasingle-powertrainlinemightrequiremanagingdozensofprocess
parameters,amixed-lineproducingICE,hybrid,andBEVvariantssimultaneouslyrequiresmanagingseveraltimesthatnumber.Higherelectronicscontentaddsadditionalcomplexity,too,thatis,morecalibration
steps,morevalidationrequirements,morepotentialfailurepoints.
Flexiblemanufacturingsystemsintroduceadditionalvariability.Eachconfigurationaddsparametersto
monitor,thresholdstoset,anddecisionstomake.ThisiswhereAI/MLismostuseful:identifyingpatternsinhigh-dimensionalprocessdatathatoperatorsandengineerscannotmonitorcontinuously.
Operationalcostpressure
Commodityinflation,vehicleaffordabilityconstraints,andpersistentmargin(cost)pressurehaveincreasedfocusonyield,scrap,throughput,andunplanneddowntime.Inthisenvironment,late-stagequalityfixes,
emergencymaintenancecalls,andproductiondisruptionsthatcouldhavebeenanticipatedcarrypotentiallyseverefinancialconsequences.Forexample,asingleproductionstoppagecancosttenstohundredsof
thousandsofdollarsperhourathigh-volumeassemblyfacilities.Predictivemaintenancesystemsthatreduceunplanneddowntimebyevenafewpercentcandelivermeaningfulcostimprovement.
Globalcompetition
CompetitionfromChinaisincreasingexpectationsaroundspeed,cost,andmanufacturingintegration.
Furthermore,ChineseOEMsarereportingfasterdevelopmentcyclesandtightercoststructuresinpart
becauseofhighlyintegrated,automatedproductionenvironments.Theexpectationthatdomestic
manufacturerscanmatchthesecoststructureswhileproducingmorecomplexvehiclesandsimultaneouslyimprovingquality,isincreasingpressureonbothOEMsandsupplierstoimprovemanufacturingperformance.
Onshoringandlabor
Automakers’onshoring(reshoring)commitmentsarerunningdirectlyintopersistentlaborshortagesacrosspartsofthesupplybase.Automationisenablingcost-competitiveproductionunderconditionswhere
laborsupplyisconstrained.Thejobsthatreturnfromreshoringwillbemoreautomatedthanthejobsthatleft,requiringadifferentskillsetandadifferentmanufacturingmodel.System-guidedprocessesreducedependenceonexperiencedoperatorsandcanmaintainproductionconsistencyevenwhenexperiencedpersonnelareunavailable.
Limitsofexistingsystems
Existingautomationisstronginrepeatabilitybutlesseffectiveinmanagingvariation,disruption,and
complexity.Theautomotiveindustrymaybepressingthelimitsofwhattask-levelautomationcandeliver.Thenextphaseofperformanceimprovement,inquality,uptime,productivityandresponsiveness,requiressystemsthatcanlearn,adapt,andsupportdecisionsinrealtimeratherthanexecutingfixedinstructions.
RockwellAutomation•SmartManufacturinginAutomotive:Deploymentandimpact|06
SmartManufacturingwithintheAutomotiveIndustry
Figure2below,mapsautomotivetechnologydeploymentandfutureinvestmentagainsttheindustryaverage,using2026RockwellAutomationsurveydata.Automotiveinvestmentintentissofar
concentratedinquality,analytics,andautomationsystems,consistentwiththeoperationalprioritiesdescribedinthispaper.
ManufacturingindustrySmartManufacturingmatrix
Futureinvestment/Strategicintent
—
—
—
—
—
—
Simulation
Clound/SaaS
Robotics
CybersecurityNLP/Voice
Cobots
AI/ML
Wearables
GenerativeAI
VisionSystems
AMRs/AGVs
DigitalTwins
020406080100
Currentdeployment/Digitalmaturity
100—
80—
60—
40—
20—
0—
Figure2.Automotivetechnologydeploymentandfutureinvestmentmatrix
Source:11thAnnualStateofSmartManufacturingReport,RockwellAutomation
Methodology:Thematrixcomparessmartmanufacturingtechnologycategorieswithintheautomotiveindustryusingtwocompositemeasures.The
DigitalMaturityIndex(X-axis)measurescurrentadoptionusingthepercentageofautomotiverespondentsreportingthattheyhave“alreadyinvested”ineachtechnologycategory.TheFutureIntenttoInvestIndex(Y-axis)measuresplannedadoptionusingthecombinedpercentageofrespondentsplanningtoinvestineachtechnologycategorywithinthenext12monthsandwithinthenextfiveyears.
RockwellAutomation•SmartManufacturinginAutomotive:Deploymentandimpact|07
Qualityprocesses
Inspectionhashistoricallyincludedmanualchecksandpost-processvalidation.Automationisexpandingintoin-lineinspectionandanomalyidentificationduringproduction.AI/MLsupportsdetectionand
classification,buttheprimaryshiftismovingqualityprocessesclosertothepointofproduction,thatis,catchingproblemsbeforetheypropagatethroughassembly.
ExamplesincludeAI-enabledvisionsystemsforpaintandsurfaceinspection,automatedelectronics
validation,in-lineanomalydetectiononbodypanels,andtraceabilitysystemsthatlinkprocessparameterstospecificvehicleorcomponentbuilds.AccordingtoCARresearch,whenafieldqualityissueappears,
manufacturerswithfulltraceabilitycanidentifytherootcauseandaffectedpopulationinhoursratherthanweeks.
Processmonitoringandadjustment
Coreprocessesareautomatedbutmonitoringandadjustmenthaveoftenreliedonoperatorsandengineersreviewingdataafterthefact.Systemsareincreasinglybeingdeployedtostandardizemonitoringand
automateparameteradjustments,reducingrelianceonshift-to-shiftjudgmentandimprovingrepeatabilityacrossfacilities.
Examplesincludeautomatedadjustmentofweldparameterswhenprocessdriftisdetected,torquesettingverificationandcorrectionduringassembly,calibrationroutineautomationforelectronics-intensive
vehicles,andpaintapplicationparameteradjustmentbasedonreal-timeenvironmentalconditions.Theseadjustmentshappencontinuouslyandsystematicallyinadvancedoperations,notepisodicallybasedon
operatorobservation.
Equipmentdiagnosticsandmaintenance
Maintenancedecisionshavetraditionallybeenschedule-basedorreactive.Automationisexpandinginto
continuousdiagnosticsandcondition-basedmaintenanceworkflows.AI/MLsupportsearlieridentificationofequipmentissuesandhelpsreduceunplanneddowntimebyidentifyingdevelopingproblemsbeforetheycausefailures.
Applicationsincludeweldingrobots,stampingpresses,paintlineconveyors,andassemblyrobots,
equipmentcategorieswhereunplannedfailurehashighproductioncost.Manufacturersusingreal-time
monitoringandpredictiveanalyticshavereportedreductionsinunplanneddowntimeofupto50%inselectapplications,alongwithimprovementsinoverallequipmenteffectiveness(OEE)ofapproximately5%and
measurablyfasterbottleneckidentification.
Productioncoordinationandresponse
Scheduling,sequencing,anddisruptionresponsehavehistoricallyfallentoexperiencedproduction
supervisors.AIandMLsolutionsarenowtakingonmoreofthatcoordinationwork—automatingrouting,logisticsresponse,andproductionrecoveryinrealtime.
Inoneexample,aTier1supplierreducedlinestoppagesbyconnectingreal-timeproductiondatato
automatedresequencinglogic,eliminatingresponsedelaysthatpreviouslyrequiredsupervisorintervention.
Engineeringandenterprisefunctions
AI/MLapplicationsarealsoexpandingbeyondtheplantfloor.Engineeringteamsareusingsimulation
anddigitaltwintoolstoacceleratevehicledevelopment,reducephysicalprototypecycles,andevaluate
manufacturingprocesstradeoffsbeforetoolingiscut.Qualityteamsareusingfield-to-plantdatalinkagestoidentifywarrantyrootcausesearlierintheproductioncycle.Planningfunctionsareusingscenario
analysis,enabledbydigitaltwins,toimproveproductionsequencingandlogisticscoordinationundervariabledemandconditions.
RockwellAutomation•SmartManufacturinginAutomotive:Deploymentandimpact|08
Whatischanginginpractice
TheoperationaleffectsofexpandedautomationandAI/MLareincreasinglyvisibleand,increasingly,
measurable.Thepatternacrossearlyapplicationsisconsistent:moreproductionstepsaregovernedbydefined,repeatablesystems;problemsaredetectedclosertothepointofoccurrence;maintenanceisshiftingfromreactivetocondition-based;anddecisionsarebecomingmoreconsistentacrossshifts
andplants.
Earlierissuedetection
Intraditionaloperations,qualityissuesoftensurfaceduringend-of-lineinspection,atthecustomer,orin
warrantydata.Eachofthosedetectionpointsisexpensive.Movingdetectionupstream,intotheproductionprocessitself,reducesthecostofcontainmentandthevolumeofaffectedvehiclesorcomponents.
AI-enabledvisionsystemsidentifysurfaceanomaliesduringpaintorbodyoperationsthatpreviously
requiredmanualinspection.Electronicsvalidationsystemscatchcalibrationandsoftwareissuesduringassemblyratherthanatend-of-line.Thepracticaleffectissmallercontainmentpopulations,fasterroot-causeidentification,andfewervehiclesaffectedbeforeaproblemisisolated.
Predictivemaintenancereplacingreactiveapproaches
Traditionalmaintenanceschedulesdon’taccountforhowequipmentisrunning.Condition-based
maintenance,supportedbycontinuousmonitoringandAI/MLpatternrecognition,replacesfixedscheduleswithreal-timeequipmentintelligence.
Earlydeploymentshaveshown40–60%reductionsinunplanneddowntime.Forhigh-utilization
equipmentlikestampingpressesandweldingrobots,thatreductiontranslatesdirectlytoproductioncostandthroughput.
Reducedvariationacrossshiftsandplants
Oneofthepersistentchallengesinmanufacturingismaintainingconsistentperformanceacrossshiftsandfacilities.Experiencedoperatorsandengineersdevelopjudgmentovertime,andthatjudgmentdoesnot
transferautomaticallytonewhiresordifferentplants.System-guidedprocessesreducethatdependencebyencodingbestpracticesintodefined,repeatableworkflows.
Manufacturersdeployingstandardizedmonitoringandautomatedprocessadjustmentreportmore
consistentqualitymetricsacrossshifts.Inonebodyshopapplication,real-timeanalyticsidentifieda
framing-linebottleneckthathadnotbeenisolated,producinga5…7%improvementincycletimeandafour-jobs-per-hourthroughputgain.Launchteamswithbettervisibilityintoprocessperformancecanidentify
andaddressvariationfasterduringramp-up,whenthecostofvariationishighest.
Operationalproductivity:TheAutolivexample
Autoliv,aleadingglobalproducerofsafetysystems,providesoneofthemoreconcretesupplier-level
examplesofwhatsustainedautomationinvestmentcandeliver,inCAR’sview.Thecompanyreporteddirectlaborproductivityimprovementsacceleratingfromapproximately4%in2023tomorethan8%in2024andover9%in2025.Managementhassinceraiseditsannualproductivityguidanceto8%,citingadditional
automationopportunitiesinlogisticsandoperations.
Autolivwasalreadyastrongproductivityperformerasanearly-adopterofautomation.BLSdataputthatperformanceinperspective:DurableGoodsManufacturingasawholeaveragedmodestornegativedirectlaborproductivitygrowthover2020–2024,rangingfrom0.8%in2021to-1.1%in2023,beforerecoveringto2.7%in2025.MotorVehiclePartsmanufacturers(NAICS3363)showedmorevolatility,swingingfrom
RockwellAutomation•SmartManufacturinginAutomotive:Deploymentandimpact|09
-2.6%in2020toapeakof5.9%in2022beforemoderatingto2.4%in2024(2025datanotyetavailable).
Againstthesebenchmarks,Autoliv’s8.1%in2024and9.2%in2025reflectthereturnsfromanearlyand
sustainedcommitmenttoautomation,nowextendedintoAI/MLanddigitalization.Thecompanyhasreachedaproductivitygrowthrateroughlythreetofourtimesthatofthebroaderdurablegoodssector,anadvantagethatcompoundsyearoveryearincoststructureandmanufacturingcompetitiveness.
Automotivesupplierproductivitycomparison
Directlaborproductivityimprovement(%)
—
—
—
—
—
—
Autoliv(CompanyEstimates)
DurableGoodsManufacturing(BLS)
MotorVehiclePartsMfg-NAICS3363(BLS)9.2%
8.1%
12%—
10%—
8%—
6%—
4%—
2%—
0%—
-2%—
-4%—
1.4%0.8%
0.1%0.2%
202020212022202320242025
5.9%
4.1%
-0.7%
-1.1%
2.7%2.4%
2.6%
2.2%
-0.5%
-2.6%
5.1%
Figure3.Automotivesupplierproductivitycomparison,2020–2025
Source:BLS/BEA;Autolivcompanyestimates;CARAnalysis)|*2025datanotyetavailableforNAICS3363
Whatthismeans:Strategicimplicationsforthe
AutomotiveIndustry
Aperformancedivideisemerging
Early-adoptersarereportingmeasurablegainsinquality,uptime,productivity,andlaunchexecution.
Companiesthathavenotyetmadecomparableinvestmentsarecompetingagainstthoseresultswithlegacysystemsandmanualprocesses.Thatgapwidenseachyear,andCARinterviewsindicateitisbeginningto
influencesourcingandcontractawarddecisions.
Unevenadoptionacrossthesupplybase
LargeTier1supplierswithglobaloperationsanddedicatedmanufacturingengineeringresourcesare
generallyfurtheralongindeployment.Mid-sizedandsmallersuppliersfaceamoredifficultpath,withfewerresourcesandlessinstitutionalbandwidth.ThegapbetweenwhatleadingOEMsexpectandwhatmany
supplierscancurrentlydeliverisobservableandgrowing.OEMsareincreasinglyweighingautomationcapabilityalongsidecost,qualityhistory,andcapacityinfutureprogramassessments.
RockwellAutomation•SmartManufacturinginAutomotive:Deploymentandimpact|10
Risingexpectationsfromautomakers
Asautomakersextendsmartmanufacturingacrossproduction,engineering,andqualityoperations,theyareraisingexpectationsfortheirsupplybase.Greaterresponsiveness,moreconsistentquality,andbetterproductionvisibilityarebecomingbaselineexpectationsratherthandifferentiators.
Someautomakersareexplicitlycommunicatingautomationrequirementsinselectcommoditycategories,withdirectconsequencesinsourcingdecisions.
Onshoringwillbemoreautomatedthanbefore
Increaseddomesticproductioncommitments,drivenbytariffsandtradepolicy,supplychainresilience,andcustomerrequirements,arematerializingagainstpersistentlaborconstraintsacrosspartsofthesupply
base.Productionthatreturnswillnotlookliketheproductionthatleft:itwillbemoreautomated,moredata-intensive,andrequireadifferentworkforceskillset.
Futureoperationswillrelymoreheavilyonsystemoversightandprocessengineeringthanondirectlaborintraditionalassemblyroles.Manufacturersplanningthosemovesmustaccountforworkforcedevelopment,facilitydesign,andcapitalinvestmentaccordingly.
Whatcomesnext
Formanufacturersalreadywellalonginautomationdeployment,thenextphaseisaboutleveragingAI/ML
alongsideautomationratherthansimplydeployingnewsystems.Theemphasisisshiftingtowardcombiningthesetoolstogeneratemeasurablegainsinthroughput,productivity,andprocessconsistency.AI/MLis
increasinglyhowmanufacturersareunlockingthefullvalueoftheirautomationinvestments.
Throughputandproductivity
Manymanufacturershavedeployedmonitoring,analytics,andautomationsystemsthatarenotyetfully
integratedorfullyused.Closingthosegapsisthenextphaseofimprovement.Betterintegrationacross
quality,maintenance,andproductioncoordinationtoolscandeliverthroughputgainswithoutadditional
capitalinvestment.Inmanyoperations,thebottleneckisnothardwarecapacitybutinformationlatency:thetimebetweenwhenaproblemdevelopsandwhentherightpersoncanactonit.
Fasterdetectionandresponse
Shorterresponsecyclesaretheoperationalobjectivethattiestogetherquality,maintenance,and
productioncoordination.Asystemthatidentifiesadevelopingequipmentissuetenhoursbeforeitcausesafailureismorevaluablethanonethatidentifiesittenminutesbefore.Aqualitysystemthatcatchesa
processexcursionbeforeitaffectstenvehiclesismorevaluablethanonethatcatchesitatend-of-line.ThecompetitiveadvantageofAI/MLinmanufacturingisfundamentallyaboutspeed:reducingthetimebetweenproblemonsetandresolution.
Closeralignmentbetweendesign,manufacturing,andoperations
Thelonger-termdirectionismoreintegratedsystemsthatconnectengineering,manufacturing,andfieldoperationsinwaysthatcurrentarchitecturesdonotsupport.Fieldqualitydatainformingengineering
designinnearrealtime.Manufacturingprocessparameterslinkedtovehicleperformanceinthefield.Productionplanningsystemsthatincorporateactualmanufacturingcapabilityconstraintsratherthantheoreticalcapacity.
RockwellAutomation•SmartManufacturinginAutomotive:Deploymentandimpact|11
Thisintegrationisnottrivialtoachieve–itrequiresdatainfrastructure,organizationalalignment,and
processdisciplinethatmostmanufacturersarestillbuilding.Butthecompaniesthatgettherefirstwill
haveastructuraladvantageinproductdevelopmentspeed,qualityperformance,andcostthatisdifficulttoreplicatequickly.
Thesuppliertransition
ForsuppliersthathavenotyetmadesignificantinvestmentsinautomationandAI/ML,thewindowfor
catchingupwithoutconsequencesisnarrowing.OEMexpectationsarerising,sourcingcriteriaareevolving,andtheoperationalgapbetweenleadingandlaggingsuppliersiswidening.Formostmid-sizedsuppliers,
therightstartingpointisnotacomprehensivedigitaltransformationprogrambutidentifyingtwoorthreehigh-impactapplicationswhereinvestmentcandelivermeasurableresultsquickly,andbuildingfromthere,accordingtoCARinterviews.
Keytakeaways
•Automotivestartsfromanalreadyindustry-leadingautomationlevels.ThecurrentshiftisaboutwhereandhowautomationandAI/MLareapplied,notnecessarilybuildingafoundationfromscratch.
•Theexpansionisintoareasthathavehistoricallybeenmanual,variable,oroperator-dependent:
electronicsassemblyandvalidation,in-linequalityprocesses,equipmentdiagnostics,andproductioncoordination.
•AI/MLisenablingandsupportingthisexpansion.Itsprimaryvalueisimprovinghowautomatedand
manualsystemsidentifyissues,supportmaintenancedecisions,improvequalityprocesses,andmanagecomplexityfrommixedpowertrainsandhigherelectronicscontent.
•Earlyresultsaremeasurable.Manufacturersreportedreductionsinunplanneddowntimeofupto50%inselectapplications,Overallequipmenteffectiveness(OEE)improvementsofapproximately5%,andthroughputgainsof5…7%fromreal-timeproductionanalytics.Autoliv’sproductivitya
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