future freight flows: today & tomorrow - mit...

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1 MIT Center for Transportation & Logistics ctl.mit.edu Future Freight Flows: Today & Tomorrow Chris Caplice [email protected] Director, MIT FreightLab 15 June 2017 MIT Center for Transportation & Logistics MIT FreightLab Finding better ways to design, procure, manage, and assess freight transportation networks across all modes and regions.

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  • 1

    MIT Center for Transportation & Logistics ctl.mit.edu

    FutureFreightFlows:Today&Tomorrow

    [email protected]

    Director,MITFreightLab15June2017

    MIT Center for Transportation & Logistics

    MITFreightLabFinding better ways to design, procure, manage, and assessfreight transportation networks across all modes and regions.

  • 2

    MIT Center for Transportation & Logistics

    FreightLab – PartialResearchProjectList• OptimalTransportationProcurement• GlobalOceanTransportReliability• TransportationPortfolioDesign&Management• FreightTransportationProductivity• CarrierFuelBurden• SameDayFleetLoadAcceptance• SmallCarrierProfitabilityStrategies• DirecttoStoreDeliveryStrategies• TheLivingPlan– Robustnessvs.Flexibility• SupplyChainComplexity• DisruptionsofDominantDistributionDesign

    UnderlyingQuestion...Howtodealwithvariability&uncertainty?

    MIT Center for Transportation & Logistics

    Planning(Prevention)versusResponding• MITCTLGlobalRiskSurvey

    n 1,500responsesfrom70countriesn Ratingfrom0(100%Prevention)to4(100%Response)

    • Averageoverallwas1.41n 54%Plannersn 16%Respondersn 30%OntheFence

    • DemographicDriversn Gendern Geographyn JobFunction

    4

    WomenareRespondersMenarePlanners(1.60vs.1.37)

    0 1 2 3 4

    Planner Responder

  • 3

    MIT Center for Transportation & Logistics

    Geography– Ofbirth,notwork!

    5

    MIT Center for Transportation & Logistics

    JobRoleorFunction

  • 4

    MIT Center for Transportation & Logistics

    TheLivingPlan:Robustvs.FlexiblePlanning

    7

    MIT Center for Transportation & Logistics

    IsBenFranklinstillcorrect?“An ounce of

    prevention is worth a pound of cure”

    Poor Richard’s Almanac

  • 5

    MIT Center for Transportation & Logistics 9

    Whatistheproblem?OverallResearchQuestions

    1. Howshouldafirmbestselect,onastrategicbasis,whattypesofcontractualrelationshiptouseforwhichsegmentsofitsfreighttransportationnetwork?

    2. Howshouldthisdecisionfitintothegeneraltransportationprocurementprocess?

    3. Howcanwebalancerobustnesswithflexibility?

    ResearchApproachn PartneredwithWal-Martn Extendedresearchteam(Dr.FranciscoJauffred co-PI)n Developedandimplementedstochasticoptimizationmodeln IntegratedinWMprocurementprocess

    MIT Center for Transportation & Logistics 10

    CurrentTransportationPractice• ThereisacontinuumofrelationshipsforTLbasedon:

    n OwnershipofAssetsversusControlofAssetsn Responsibilityforutilizationn On-goingcommitment/responsibilitiesn SharedRisk/Reward– Flexiblecontracts

    PrivateFleet

    SpotMarket

    DedicatedFleet

    CoreCarriers

    AlternateCarriers

    Use for most reliable and steady flows

    Use for random & distressed traffic

  • 6

    MIT Center for Transportation & Logistics

    0%10%20%30%40%50%60%70%80%90%100%

    0 1 2 3 4 5 6 7 8 9 10

    Loads Per Week

    Pro

    bab

    ility

    Prob Cumul

    0%10%20%30%40%50%60%70%80%90%100%

    5 7 9 11 13 15 17 19 21 23Loads Per Week

    Pro

    babi

    lity

    Prob Cumul

    Howmuchvolumetoassigntothefleet?

    Lane: DCP -> S93304 ~N(14.6, 2)

    The“BufferVolume” capturesourconfidencelevel.Itcanbepositiveornegative:>0indicateswepreferexcessfleetcapacityoverbeingshort(ShortSensitive)<0indicatesweprefershortfleetcapacityoverhavingexcess(ExcessSensitive)=0indicatesweareindifferenttohavingexcessorshortfleetcapacity(RiskNeutral)

    AssignedFleetVolume(AFV)perWeek=AvgVol +(BufferVolume)

    Continuous Lane Intermittent Lane

    ExcessSensitive

    ShortSensitive

    Risk Neutral Lane: V93252 -> DCP

    ~P(3.6)

    ExcessSensitive

    ShortSensitive

    Risk Neutral

    How do we determine the acceptable risk to calculate the optimal “Buffer”?

    MIT Center for Transportation & Logistics

    AllToursGenerated“Optimally” EachWeek

    0%

    20%

    40%

    60%

    80%

    100%

    0

    50

    100

    150

    200

    250

    0 1 2 3 4 5 10 15 20 25 30 35 40 45 50 52

    Cumulative%ageofOccurrence

    Freq

    uency

    No.ofweeks

    Histogram&CDFofAllToursinCompleteFlexibilityOperationalPlan

    Frequency Cumulative%Consistent Tours!

  • 7

    MIT Center for Transportation & Logistics

    AnnualPlannedToursthatAppearinWeekly

    0%

    20%

    40%

    60%

    80%

    100%

    0

    10

    20

    30

    40

    50

    60

    0 5 10 15 20 25 30 35 40 45 50 52

    Cumulative%ageofOccurrence

    Freq

    uency

    No.ofWeeks

    Histogram&CDFofStochasticPlanTours

    Frequency Cumulative%

    Greater Percentage of Consistent Tours!!

    MIT Center for Transportation & Logistics

    Comparing“Plan” versus“Operational” Tours

    0

    50

    100

    150

    200

    0 10 20 30 40 50

    No.ofTou

    rs

    OperationalPlanSimulationWeek

    Break-downoftheNo.ofweeklygeneratedtoursthatconsistofStochasticPlanTours

    No.ofToursinFullFlexibilityOperationalPlan No.ofToursfromStochasticPlan

    “Ad-hoc” tours generated, that were not part of the Annual Plan (29%)

    No. of tours generated, that were part of the Annual Plan (71%)

  • 8

    MIT Center for Transportation & Logistics

    USTRANSCOMProject• Explore,develop,andevaluatealgorithmictechniques,

    methodologies,andapproachestobettersolvethetacticalaircraftplanningandschedulingproblemforUSTRANSCOM–especiallyconsideringuncertaintyandvariabilityinmissions.

    • Sub-Objectives1. Formulateandcreatecodeprototypesofcandidateresilientoptimization

    models2. Examinethetrade-offbetweenrobustplanningandflexibilityinresponse3. Createasimulationtestbedtoenablehands-ontestingandevaluationof

    differentplanningmodels,operationalpolicies,andotherfactors

    MIT Center for Transportation & Logistics

    Simulation ModuleNetwork

    Resources

    Requirements

    ‘Optimal’PlanParameters

    ActualOutcome

    UNCERTAINTY MODULE

    PLANNING MODULE Options:• Heuristic Rules • Deterministic Optimization• Stochastic Optimization• Robust Optimization

    UNCERTAINTY MODULE Options:

    • Arrival of new requirements• Change to old requirements• Aircraft delays

    OPERATIONAL LOGIC Options:

    • Buy 3rd party capacity• Cargo re-routing allowed• Aircraft re-routing allowed• Cargo & Aircraft re-routing

    allowed

    PLANNING MODULE

    OPERATIONAL LOGIC MODULE

    SCENARIO ANALYSIS SCENARIO ANALYSIS • Lane capacity comparisons

    • Total system cost• Comparative statistics . . .

    etc.

    1

    2

    SimulationTestBedOverview

  • 9

    MIT Center for Transportation & Logistics

    ResilienceTradeoff

    0

    5

    10

    15

    20

    25

    30

    TotalSystemCost

    LevelofResilience(robustness&flexibility)

    CostofthePlan CostofDisruption Plan+Disruption

    Deterministic-Optimal Solution – potentially fragile in face of any change

    Overly Redundant Solution – excess robustness or padding

    Sweet Spot

    Resilient Solution – proper balance of robustness & flexibility

    No Resilience

    HighResilience

    MIT Center for Transportation & Logistics

    Synchromodal Flow

    18

  • 10

    MIT Center for Transportation & Logistics

    SynchronizingTheSupplyChain• OverallResearchQuestions

    1. HowcanweidentifySKUsthatcanbemanufactured,transported,anddistributedinstablequantitiesoveranextendedperiodoftime?

    2. Wheredothesavingscomefromforthissynchronizedflow?3. Howcanwemaintain/updatethissynchromodal plangoingforward?

    • ResearchApproach1. Workedwithlargeconsumerpackagedgood(CPG)manufacturer2. ThesisbyPriya Andleigh andJeffreyBullock,supervisedbyDr.AhmadHemmati3. DevelopedmodelforidentifyingcandidateSKUsandquantifyingthebenefits.

    MIT Center for Transportation & Logistics

    ProjectObjectivePlant

    Warehouse

  • 11

    MIT Center for Transportation & Logistics

    ProjectObjective

    Howmuch?

    WhichSKUs?

    On-Demand

    Fixed Volume

    $ per load

    PlantWarehouse

    MIT Center for Transportation & Logistics

    SteadyFlowTrade-offs

    5 7 9 11 13 15

    Costs/Savings($)

    SteadyFlow(#ofpallets/week)

    TransportationSavings

  • 12

    MIT Center for Transportation & Logistics

    SteadyFlowTrade-offs

    5 7 9 11 13 15

    Costs/Savings($)

    SteadyFlow(#ofpallets/week)

    TransportationSavings

    Cross-DockSavings

    MIT Center for Transportation & Logistics

    SteadyFlowTrade-offs

    5 7 9 11 13 15

    Costs/Savings($)

    SteadyFlow(#ofpallets/week)

    TransportationSavings

    Cross-DockSavings

    ExcessInventoryCost

  • 13

    MIT Center for Transportation & Logistics

    5 7 9 11 13 15

    Costs/Savings($)

    SteadyFlow(#ofpallets/week)

    TransportationSavingsCross-DockSavingsExcessInventoryCostTotalSavings

    SteadyFlowTrade-offs

    Maximum Savings

    MIT Center for Transportation & Logistics

    Yes

    Hweeks

    Methodology

    HistoricalData

    ForecastData

    ForecastCheck

    DescriptiveStatistics

    SteadyFlow

    Eligible?

    STOP

    No

    %Forecast>0>X%%weeksshipped>Y%COV<Z%ALL

    weeks

    Fweeks

    1

    2 3

    4

    5

    6

    CreateOptimizedSteadyFlow

    LevelSKUs• List• Quantity

    SteadyFlow

    7 9

    Maximize{Transportationsavings+Cross-docksavings–

    ExcessInvcost}

    FixedTruck/IMCapacity

    8

  • 14

    MIT Center for Transportation & Logistics

    SKUExample1 DemandCharacteristicsMinimum(pallets/week) 28 %weeksshipped 100%Mean(pallets/week) 37.7 COV 0.13StdDev(pallets/week) 4.80

    ModerateVolume,StableSKU

    MIT Center for Transportation & Logistics

    DemandCharacteristicsMinimum(pallets/week) 28 %weeksshipped 100%Mean(pallets/week) 37.7 COV 0.13StdDev(pallets/week) 4.80

    ModerateVolume,StableSKU

    SKUExample1

  • 15

    MIT Center for Transportation & Logistics

    SKUExample2 DemandCharacteristicsMinimum(pallets/week) 9 %weeksshipped 100%Mean(pallets/week) 27.9 COV 0.60Std Dev(pallets/week) 16.7

    HighCOVSKU

    MIT Center for Transportation & Logistics

    SKUExample2 DemandCharacteristicsMinimum(pallets/week) 9 %weeksshipped 100%Mean(pallets/week) 27.9 COV 0.60Std Dev(pallets/week) 16.7

    HighCOVSKU

  • 16

    MIT Center for Transportation & Logistics

    DemandCharacteristicsMinimum(pallets/week) 1 %weeksshipped 87%Mean(pallets/week) 2.3 COV 0.52StdDev(pallets/week) 1.20

    LowVolume,NotShippedEveryWeek

    SKUExample3

    MIT Center for Transportation & Logistics

    DemandCharacteristicsMinimum(pallets/week) 1 %weeksshipped 87%Mean(pallets/week) 2.3 COV 0.52StdDev(pallets/week) 1.20

    LowVolume,NotShippedEveryWeek

    SKUExample3

  • 17

    MIT Center for Transportation & Logistics

    Implications

    SteadyFlow

    TransportationSavings

    ReplenishmentCycleTimeReduction

    BullwhipDampening

    Cross-dockProductivity

    SafetyStock

    Reduction

    ContractInnovation

    • Identifyingthe“steadymovers”hasbenefitsbeyondjusttransportationstability.

    • Allowsformanufacturingandcross-dockingimprovements.

    MIT Center for Transportation & Logistics

    GlobalOceanTransportationReliability

    34

  • 18

    MIT Center for Transportation & Logistics

    Lead/TransitTimeReliability• KeyQuestions:

    nWhatisthedefinitionofreliabilitywithinafirm?nWhatarethesourcesofunreliability/variability?nHowcanthecurrentsituationbeimproved?

    • TwoDimensionsofReliabilityn Credibilityn ScheduleConsistency

    Material adapted from Arntzen, B. (2011) “Global Ocean Transportation Project,” Internal MIT Center for Transportation & Logistics (CTL) Report.

    MIT Center for Transportation & Logistics

    Meanactualtransittime

    Contractedtransittime

    Estimatedtransittime

    45°line

    ObservationsfromPractice

    Betterthancontract

    Worsethancontract

    Contract reliability in procurement and operations do not always match

    Material adapted from Caplice, C and Kalkanci, B. (2011) “Managing Global Supply Chains: Building end-to-end Reliability,” Internal MIT Center for Transportation & Logistics (CTL) Report.

  • 19

    MIT Center for Transportation & Logistics

    Whileaccurateestimatesoftheport-to-porttransittimesexist,thereisonlylimitedinformationonportdwelltimes.

    Origin port dwell Destination port dwellPort-to-port transit time

    Contract reliability differs dramatically across different route segments

    ObservationsfromPractice

    MIT Center for Transportation & Logistics

    Distributions are not always symmetric or uni-modal.ObservationsfromPractice

  • 20

    MIT Center for Transportation & Logistics

    WhenshouldyourERPconsidervariability?

    IncorporateWorseoffbyignoringlead-timevariability

    IgnoreBetteroffbyignoringlead-timevariabilityCo

    efficientofV

    ariatio

    n(std

    dev/med

    ianlead-tim

    e)

    Criticalratio

    ~15%

    ~80%

    ~5%

    MIT Center for Transportation & Logistics

    HandlingToday’sVariability• Useportfoliooftransportationsolutions

    n IdentifybestuseofRobust&FlexibleoptionsnDetermineoptimalallocationacrossthenetwork

    • Segmenttheproductbyvariabilityn IdentifycandidateSKUsforsynchromodal flown Benefitsextendbeyondjusttransportationsavings

    • Ignoreitn Identifywhenitisworthwhiletoinvestornot

  • 21

    MIT Center for Transportation & Logistics

    ShiftingtoTomorrowVariabilitybecomesUncertainty

    MIT Center for Transportation & Logistics

    FreightTransportationPlanningishard.• Hardforshippers,• Harderforcarriers,• Hardestforgovernmentplanners!

    n Infrastructureplanningtimeframeisdecadesn Diverseandvocalconstituents(NIMBY,BANANA)n Palletsdon’tvoten Bothmodal andjurisdictional silosn Revenuesourcesaredecreasingdramaticallyn Removedfromthesystemusers

    42Recognized by FHWA & NCHRP – thus the NCHRP 20-83 Projects

  • 22

    MIT Center for Transportation & Logistics

    NCHRP20-83(1)ProjectObjectives• TwoObjectives:

    n “Providedecisionmakers[stateDOTs]withacriticalanalysisofthedrivingforces behindhigh-impacteconomicchangesandbusinesssourcingpatternsthatmayeffecttheUSfreighttransportationsystem [intheyear2030&beyond].”

    n “Betterenableinformeddiscussionsofnational,multi-state,state,andregionalfreightpolicyandsysteminvestmentpriorities.

    • Details:n NationalAcademies- TransportationResearchBoard(TRB)&National

    CooperativeHighwayResearchPrograms(NCHRP)n Firstof7projectsfocusedon“long-rangestrategicissues”n Developanddelivermethodologythrough6workshops

    43

    MIT Center for Transportation & Logistics

    DifferentMethodsforPlanning

    44

    Time

    Plan

    ning

    Hor

    izon

    But what about very long term (10 to 30+ years) planning?

  • 23

    MIT Center for Transportation & Logistics

    Longertermplanningisimpactedbyevents

    Source:Scenarios:AnExplorer’sGuide,ShellInternational2003.

    MIT Center for Transportation & Logistics

    PoorForecastingisnot athingofthepast...

    46

    2"

    2.25"

    2.5"

    2.75"

    3"

    3.25"

    3.5"

    3.75"

    4"

    4.25"

    4.5"

    4.75"

    Jan+06" Jul+06" Jan+07" Jul+07" Jan+08" Jul+08" Jan+09" Jul+09" Jan+10" Jul+10" Jan+11" Jul+11" Jan+12" Jul+12" Jan+13"

    On#Highway#Diesel#Fue

    l##($/gallon)##

    Forecast_Jan2008" Forecast_Jan2009" Forecast_Jan2010" Forecast_Jan2011" Forecast_Apr2011" Actual"

  • 24

    MIT Center for Transportation & Logistics 47

    Stillnotathingofthepast...

    MIT Center for Transportation & Logistics

    DifferentMethodsforPlanning

    48

    Time

    Plan

    ning

    Hor

    izon

    Shift focus from prediction to preparation

    But what about very long term (10 to 30+ years) planning?

  • 25

    MIT Center for Transportation & Logistics

    FutureFreightFlowScenariosWecreated4FFFscenariosforNovember2,2037

    • Running6workshopsacrosstheUS• Over300shippers,carriers,andgovernmentplanners• Developmentof“ScenarioPlanningToolkit”forstateDOTs

    MIT Center for Transportation & Logistics

    TechnologyOpinions

    50

  • 26

    MIT Center for Transportation & Logistics

    TechnologyTrends&ImpactHotTopicsHitList

    nUberforFreightnDeliveryDronesnAutonomousTrucksnMobileComputingnAdditiveMfg

    51

    Soon≤5years

    Later>5years

    SmallImpact

    LargeImpact

    1large-soon

    2large-later

    3small-soon

    4small-later

    5none- ever

    MIT Center for Transportation & Logistics

    DigitalFreightMatching

    52

  • 27

    MIT Center for Transportation & Logistics

    Uber forX

    53

    MIT Center for Transportation & Logistics

    WhynotUber forFreight?

    54

  • 28

    MIT Center for Transportation & Logistics

    Over$500Minvestedinthese67startups

    55

    MIT Center for Transportation & Logistics

    56

  • 29

    MIT Center for Transportation & Logistics

    ThelasttimeVCsthoughtfreightwassexy...>200 Transportation Electronic Marketplaces existed in 1999,

    but essentially none survived in their original form.

    57

    MIT Center for Transportation & Logistics

    ThelasttimeVCsthoughtfreightwassexy...

    • Source:Boyle,Marc(2000)58

  • 30

    MIT Center for Transportation & Logistics

    Most Recent Real Disruption?

    50.0$

    60.0$

    70.0$

    80.0$

    90.0$

    100.0$

    110.0$

    1980$1982$1984$1986$1988$1990$1992$1994$1996$1998$2000$2002$2004$2006$2008$2010$

    IndexofRevenueperMile forUS.TruckinginReal$

    Deregulation

    59

    MIT Center for Transportation & Logistics

    DoestheUber modelfit?• Whatdowedowhenweuber?

    1. ContactasinglesourcethroughanApp2. “Realtime”visibilityofnearbyvehicles3. Matchedtooneofmultipleunderlyingproviders4. Paymenthandledoffline,estimatedinadvance5. Pricingvariesbasedonsurging

    IsUber justFreightBrokerageforPassengers?

    60

  • 31

    MIT Center for Transportation & Logistics

    HowdotheMarketsCompare?PAX FRGT

    CompetitiveMarket LocalMonopolies(taxis) HighlyCompetitiveNewCapacity Untapped/Part-Time NoneBusinessType C2C B2BServiceTypes Limited UnlimitedFrequencyofUse Occasional RepetitivePlanningLeadTime 0min 1-3DaysLengthofHaul VeryShort

    (~6miles)MuchLonger(500miles+)

    LoadingTime ~ 30seconds >1hourAsset/DriverType PersonalVehicle CommercialVehicle

    MIT Center for Transportation & Logistics

    TransportationPortfolioContinuum• Differentnetworksegmentsrequiredifferentrelationships• Segmentationofnetworkandcarriersbyneeds• Continuumfromone-offtransactionstoownership

    n OwnershipofAssetsversusControlofAssetsn Responsibilityforutilizationn On-goingcommitment/responsibilitiesn SharedRisk/Reward– Flexiblecontracts

    PrivateFleet

    SpotMarket

    DedicatedFleet

    CoreCarriers

    AlternateCarriers

    Useformostreliableandsteadyflows

    Useforrandom&distressedtraffic

  • 32

    MIT Center for Transportation & Logistics

    Proposedvaluetobettermatching• Improvedvehicleutilization

    n EstimatesinUS10%-30%emptymilesnDiffersbylengthofhaul&carriersize

    • Reducedtransactionalinefficiencies(friction)n Streamlinematching,payment,notification,visibility,etc.nDoesvisibilityofnearbytrucksaddvaluetoashipper?

    63

    MIT Center for Transportation & Logistics

    MyTake-Aways on“Uber forFreight”• Moststartupsinthisspacehatethename!• Somestartupsdohavehaveimprovedfunctionality...

    n Evolutionarymorethanrevolutionary,n Servingtoincreasecustomerexpectations,butn WorthwhilefunctionalityisbeingincorporatedwithinTMSorbrokers.

    • Demiseofbrokershasbeengreatlyexaggerated(again)n Middleman’sroleisgrowing,notbeingdiminishedn Promised“twoparty”transactionsarereally“threeparty”n Potentialconsolidationinbrokeragespace– strongeconomiesofscale

    • Areaforfit:Localreal-time,on-demanddelivery64

  • 33

    MIT Center for Transportation & Logistics

    Begsabiggerquestion...

    ContractRate

    SpotRate

    Transportatio

    nRa

    te($

    /mile)

    timeIfspotmarketwastotallyliquidandreliable,woulditleadtotheendofannualcontracts?

    65

    MIT Center for Transportation & Logistics

    DeliveryDrones

    66

  • 34

    MIT Center for Transportation & Logistics

    Trend:DeliveryDrones§ Whatisit?

    § Anunmannedaircraftthatcannavigateautonomously,withoutdirecthumancontrolorisguidedremotely.

    § Initiallyusedinmilitaryoperationsin2000§ Commercialusenowcommoninfilming,disastermanagement,search

    &rescue,geographicmapping,precisionagriculture,wildlifemonitoring,etc.

    § Whatisstatustoday?§ DroneDeliveriesHaveAlreadyHappened

    § OnDec.72016,AmazonPrimedeliveredanAmazonFireTVandabagofpopcornbydronetoamannearCambridge,UK.

    § Flirtey and7-Elevendeliveredachickensandwich,donuts,candy,Slurpees andhotcoffeeviadroneinJuly2016inRenoNV.

    § Countrieshavevariedrestrictions

    67PhotobyByEduardofamendes (Ownwork)[CCBY-SA4.0(http://creativecommons.org/licenses/by-sa/4.0)],viaWikimediaCommons

    § CommercialDrones§ Marketsize~$550Min

    2014andforecastto$1Bin5years

    § Salesgrew>200%last2yearswith>2.5MinuseinUS

    December2016ConnectRoboticsdeliveredfoodforanoldmeninthemountainsofPortugal.

    MIT Center for Transportation & Logistics

    Trend:DeliveryDrones§ DirectImpact:

    § Abletosendsmallloadstoremotelocationsquickly§ Expandsdeliverycapabilitiesusing“openair”withoutusingexistinginfrastructure

    § Essentiallyanewtransportationmodeforveryfastreplenishmentofverysmallshipmentsizeoveraclosedistance.

    § PotentialLongerTermIndirectImpacts§ Amazonwasawardedapatentforan"airbornefulfillmentcenter"whichessentiallyisblimpwithafleetofdronesfordelivery.

    § Willcomplement(butnotreplace)existinglastmiledeliverytechniques– willfindanichewithmostdeliverycompanies

    § Provideultra-fastreplenishmentforhighenditems

    68

    Soon≤5years

    Later>5years

    SmallImpact

    LargeImpact

    1large-soon

    2large-later

    3small-soon

    4small-later

    5none- ever

  • 35

    MIT Center for Transportation & Logistics

    AutonomousTrucks

    69

    MIT Center for Transportation & Logistics

    Trend:AutonomousTrucks&Vehicles§ Whatisit?

    § Trucksandothervehiclesthatcanoperatewithminimal(orno)humaninteraction.

    § EstablishedLevelsofAutomation§ NoAutomation(Level0)§ Function-SpecificAutomation(Level1)§ Combined-FunctionAutomation(Level2)§ LimitedSelf-DrivingAutomation(Level3)§ FullSelf-DrivingAutomation(Level4)

    § Whatisstatustoday?§ AutonomousDeliveryAlreadyHappened

    § FirstpaidautonomousdeliveryoccurredinColoradoinOctober2016.

    § OttodeliveredfullTLofbeer

    § Majorinvestmentsintechnology§ UberacquiredOttoin2016for$680M§ IntelacquiredMobileyein2017for$15B

    70PhotobySteveJurvetson [CCBY2.0(http://creativecommons.org/licenses/by/2.0)],viaWikimediaCommons

    § Wherecanitbeused?§ Linehaul Corridors§ Localdelivery§ Intra-Yard

  • 36

    MIT Center for Transportation & Logistics

    71

    MIT Center for Transportation & Logistics

    Trend:AutonomousTrucks§ DirectImpact:

    § Singledayrangeoftruckscoulddouble(~1000miles)§ Lowerfuelcostsduetolowerspeeds§ Ubiquityoftruckloadiscombinedwithlowcostofintermodal(truck-rail)

    § PotentialLongerTermIndirectImpacts§ Reductioninnumberofdistributioncentersandthusloweroverallinventorylevels

    § Concentratedcorridortrafficwithterminalsforlocaldrivingforlastmile

    § DissolutionofTLcarrierstoindependentdrivingentities§ Largejoblossinlong-haultrucking

    72

    Soon≤5years

    Later>5years

    SmallImpact

    LargeImpact

    1large-soon

    2large-later

    3small-soon

    4small-later

    5none- ever

  • 37

    MIT Center for Transportation & Logistics

    MobileComputing

    73

    MIT Center for Transportation & Logistics

    Trend:MobileComputing§ Whatisit?

    § Technologythatallowstransmissionofdata,voiceandvideoviaacomputeroranyotherwirelessenableddevicewithouthavingtobeconnectedtoafixedphysicallink.

    § Whatisstatustoday(2016)?§ Mobiledatatraffichasgrown18-foldoverthepast5years§ 8billionmobiledevices(325millionwearabledevices)currentlyinuse§ Averagesmartphoneusagegrew38%in2016withtheMiddleEastandAfricashowing

    65%CAGRinmobiledatatrafficgrowth(mostanywhere!)§ Smartphonesareusedasphoneslessthan3%ofthetime§ Onlineshoppingbehaviordiffersbyplatform:laptops&tabletsvs.smartphones

  • 38

    MIT Center for Transportation & Logistics

    Trend:MobileComputing

    § DirectImpact:§ Abletoaccessdataandsystemsfromanywhere§ Enablesnewparadigmsofshoppingandthusretailsupplychains(omnichannel)

    § PotentialLongerTermIndirectImpacts§ Transformationofretailshoppingindustryandexperience§ CompleteshifttoCloudcomputingforenterpriseandotherapplications

    § Decentralizeoperationsformanyprocesses

    75

    Soon≤5years

    Later>5years

    SmallImpact

    LargeImpact

    1large-soon

    2large-later

    3small-soon

    4small-later

    5none- ever

    MIT Center for Transportation & Logistics

    Whatothertrendsortechnologies???

    76

    Soon≤5years

    Later>5years

    SmallImpact

    LargeImpact

    1large-soon

    2large-later

    3small-soon

    4small-later

    5none- ever

  • 39

    MIT Center for Transportation & Logistics

    KeyTake-Aways• HandlingVariabilityToday

    nManageacompletetransportationportfolionSegmentoutstableflowthroughsupplychainnUnderstandwhennottobother

    • PreparingforUncertaintyforTomorrownFocusonpreparationratherthanpredictionnInvolvelargergrouponscenarioplanning

    77

    MIT Center for Transportation & Logistics

    Questions, Comments, Suggestions?

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