ADVANCED POWERTRAIN FORUM AN …cargroup.org/wp-content/uploads/2017/08/Schlimme.pdf · High-response EGR valve High-volume cooled EGR VVT-iE (Intake) Low-friction chain ... Current

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  • R&DUnit Function

    ADVANCED POWERTRAIN FORUMAN ELECTRIFICATION TIPPING POINT?

    Ben Schlimme

  • 2R&DUnit Function 8/1/2017

    [Key Levers]

    EVALUATION OF ELECTRIFICATION TIPPING POINT?

    [Key Levers]

    Electrification Tipping point evaluation through the lens of: Environment, Regulations, Fuel Price, and Consumer

    Environment Regulations Fuel Price Customer

    Factors for Identifying & Predicting Tipping Point

  • 3R&DUnit Function 8/1/2017

    [Key Levers]

    ENVIRONMENTAL TIPPING POINT?

    TBD

    [Key Levers]

    Energy security(crude oil)Energy security(crude oil)

    Climate Change(increasing GHGs)Climate Change(increasing GHGs)

    Growth of global industry and technology since the 20th centuryGrowth of global industry and technology since the 20th century

    Growth of motorization around the world

    Growth of motorization around the world

    Air pollution(ozone, SPM, etc.)Air pollution(ozone, SPM, etc.)

    Surge in fossil fuel

    consumption

    Surge in fossil fuel

    consumption

    Catalysts towards electrification.

  • 4R&DUnit Function 8/1/2017

    [Key Levers]

    REGULATORY TIPPING POINT?Light Duty Fuel Economy Regulation 1978-2025

    Catalysts towards electrification.

    ZEV Mandate

  • 5R&DUnit Function 8/1/2017

    Fuel Price $

    HV Sales

    # HV Models Offered

    FUEL PRICE TIPPING POINT?

    Catalyst towards electrification?

    Fuel Price & Hybrid SalesSource: EIA, RL Polk

  • 6R&DUnit Function 8/1/2017

    CONSUMER TIPPING POINT?

    [Key Levers]

    Success is born out of delivering a compelling value proposition in an ever evolving market!

    10-Million Hybrid Sales

    Join us in the future!!!

    Hybrid Evolution 2017

    1997

    3.2Million

    Toyota - 13 Hybrid Models

  • 7R&DUnit Function 8/1/2017

    ELECTRIFICATION FUTURE.

    Tank

    to W

    heel

    CO

    2(g

    /km

    )Worse

    Better

    160

    140

    120

    100

    80

    60

    40

    02010 2020 2030 2040

    20

    Conventionalgasoline and diesel

    HV

    PHV

    Corolla Segment

    2050(Year)

    Challenge:Zero Emission

    HC,CO,NOx,PM

    Electrification is the future and pairs well with the internal combustion engine.

    Addressing Potential Tipping Points

  • 8R&DUnit Function 8/1/2017

    TOYOTAS VISION

    NEW GLOBAL ARCHITECTURE (TNGA)

  • 9R&DUnit Function 8/1/2017

    POWERTRAIN DEVELOPMENT THEMES

    High Environmental Performance

    Further Toyotas driving performance

    Outstanding driving Performance

    Direct & Smooth

  • 10R&DUnit Function 8/1/2017

    TOYOTA NEW GLOBAL ARCHITECTURE

    [Key Levers]

    New PowertrainNew PlatformHybrid SystemEngine

    Transmission

    TNGA marks significant advancements in platform, engine, transmission and hybrid systems.

    Direct Shift-10ATFR

    Dynamic Force Engine

    Direct Shift-8ATFF

  • 11R&DUnit Function 8/1/2017

    [Key Levers]

    New enginesDynamic Force Engine (2.5-liter)

    Photo: kbb.com 41 MPG Highway206hp

  • 12R&DUnit Function 8/1/2017

    [Key Levers]

    Environmental Environmental performance

    Improved thermal

    efficiency

    B) Combustion qualityB) Combustion quality

    C) Improved intake efficiencyC) Improved intake efficiency

    A) Loss reductionA) Loss reduction

    3. Friction3. Friction 4. Pumping 4. Pumping 1. Exhaust1. Exhaust 2. Cooling2. Cooling Evolution offundamental

    technologies

    Evolution offundamental technologies

    Creation of common architecture through

    TNGA

    Creation of common architecture through

    TNGADirect & Smooth

    TOYOTA NEW GLOBAL ARCHITECTUREDynamic Force Engine Development Concept

  • 13R&DUnit Function 8/1/2017

    TOYOTA NEW GLOBAL ARCHITECTURE

    [Key Levers]

    High compression ratio

    High-tumble port

    IN-VVT delayed-closing control

    Atkinson cycle

    Resin-coated bearings

    Water jacket spacer with Expad

    High-response EGR valve

    High-volume cooled EGR

    VVT-iE (Intake)

    Low-friction chain

    Improvement of piston skirt surface

    High tumble ratio,high-efficiency port

    Optimization of bore/stroke ratio

    Multi-hole direct injector(new D-4S)

    Widened angle betweenintake and exhaust valves

    Laser-cladded valve seat

    High compression ratio

    Motor-driven water pump

    Flow shutoff valve

    Continuous variable-capacity oil pump

    Electrical control thermostat

    Cylinder heads with built-in EGR cooler function

    Balancer

    Optimization ofmount layout

    Compact hydraulic lash adjuster

    Small-concave-profile camshaft

    Tumble-maintaining shape, lightweight pistons

    High-strength connecting rod

    VVT-iExhaust

    Dynamic Force Engines adopt a wide range of technologies.

    New-structurewater jacket spacer

    Technologies Incorporated in Dynamic Force Engines

    Quietness Stability

    Fuel economy Output

    Fuel economy Output Clean

    Response

  • 14R&DUnit Function 8/1/2017

    TOYOTA NEW GLOBAL ARCHITECTURE

  • 15R&DUnit Function 8/1/2017

    [Key Levers]

    Performance of new engines

    Improved output and torque through optimal combustion and achieved cleaner exhaust

    Engine rpm (rpm)

    Previous EngineDynamic Force Engine

    Torq

    ue (N

    m)

    Out

    put (

    kW)

    Power & Torque Exhaust Performance

    PMpa

    rtic

    le c

    ount

    PreviousEngine

    Dynamic Force Engine

    -60%

    280

    260

    240

    220

    200

    180

    160

    140

    170

    150

    130

    110

    90

    70

    50

    30800 72002400 4000 5600

    TOYOTA NEW GLOBAL ARCHITECTUREPerformance of New Dynamic Force Engines

  • 16R&DUnit Function 8/1/2017

    TOYOTA NEW GLOBAL ARCHITECTURE

    [Key Levers]

    2.5L TNGA improves acceleration & fuel economy

    Conventional engine-powered vehicle

    Fuel

    eco

    nom

    y (U

    .S. c

    ombi

    ned

    fuel

    eco

    nom

    y)

    Previous powertrain(2AR-FE + 6AT)

    (con

    trib

    utio

    n by

    pow

    ertr

    ain)

    New Engine (2.5-liter)&

    New 8AT Transmission

    20

    impr

    ovem

    ent

    12 shorter

    Acceleration time(contribution by powertrain)

    Performance of New Dynamic Force EnginesHV

    Previous system(2AR-FXE + THS II)

    Acceleration time(contribution by powertrain)

    New Engine (2.5-liter)&

    New THS II

    20

    impr

    ovem

    ent

    10 shorter

    Fuel

    eco

    nom

    y (U

    .S. c

    ombi

    ned

    fuel

    eco

    nom

    y)(c

    ontr

    ibut

    ion

    by p

    ower

    trai

    n)

  • 17R&DUnit Function 8/1/2017

    [Key Levers]

    Maximum Thermal Efficiency (%)

    Spec

    ific

    pow

    er (k

    W/L

    )(m

    axim

    um o

    utpu

    t/dis

    plac

    emen

    t)

    30

    40

    50

    60

    70

    80

    90

    100

    32 34 36 38 40 42 44

    Dynamic ForceEngines

    Current trade-off line

    Current Toyota high thermal efficiency engine

    Toyota

    Competitors

    ICE engine improvement benefits customers while supporting regulatory requirements.

    New engineHV

    41%Newengine

    40%

    Performance of New Dynamic Force EnginesTOYOTA NEW GLOBAL ARCHITECTURE

  • 18R&DUnit Function 8/1/2017

    ADVANCED TECHNOLOGIES

    [Key Levers]

    Great driving performance + great environmental performance

    LEXUS LC 500h

  • 19R&DUnit Function 8/1/2017

    ELECTRIFICATION STRATEGIES

    New THS II enhancements began with new Prius.

    New hybrid system development concept

    Environmental Environmental Performance

    Direct & Smooth

    Improved hybrid effect1

    2 Improved transmission efficiency

    4 Evolution of control technology

    5 THS additional value

    Engine-off in low-efficiency range Use of engines high efficiency area Energy regeneration

    3 More compact dimensions and lighter weight

  • 20R&DUnit Function 8/1/2017

    [Key Levers]

    Improved THS II paired with Dynamic Force 2.5L L4

    ELECTRIFICATION STRATEGIES

    New THS II system for 2.5-liter engines

    Lithium-ion

    TRANSAXLE POWER CONTROL UNIT

    Nickle-metal hydride

    BATTERY

    Packaging Efficiency Mass Size Charge Performance Control Strategies

  • 21R&DUnit Function 8/1/2017

    [Key Levers]

    Multi-stage THS II combines outstanding fuel economy and road performance for rear-wheel-drive passenger vehicles.

    ELECTRIFICATION STRATEGIES

    THS Stage mechanism(Gear change section)

    Multi-Stage THS II

  • 22R&DUnit Function 8/1/2017

    [Key Levers]

    Use of Dual Motor Drive system makes powerful EV driving possible

    ELECTRIFICATION STRATEGIES

    EV Mode ImprovementPlug-In HV

  • 23R&DUnit Function 8/1/2017

    [Key Levers]

    Future EV development set to support global electrification towards ZERO C02.

    ELECTRIFICATION STRATEGIES

    Future EV ProgramsToyota EV Programs Past & Present

    Furthering electrification technologies across the Toyota line-up.

    EV

    EV Business Planning Department

  • 24R&DUnit Function 8/1/2017

    Fuel Cell technology commitment continues with Project Portal!

    Fuel Cell VehicleELECTRIFICATION STRATEGIES

    Image: Dittmar Muller

    [Key Levers]

  • 25R&DUnit Function 8/1/2017

    ELECTRIFICATION PHILOSOPHY

    [Key Levers]

    Just like ICE, electrified powertrains are not a 1 size fits all.

    Toyotas Vision of Mobility Zones

    EnergySources

    Vehi

    cle

    Size

    Travel distance

    HV/PHV Zone

    HEV

    PHV

    Passenger CarEV Zone

    EV

    Short-distanceHome Delivery

    Vehicle

    PersonalMobility

    Electricity

    FCV Zone

    Home delivery truck

    Class 8 Truck

    FCVBUS)

    FCV

    Shuttle bus

    HydrogenHydrocarbon

  • 26R&DUnit Function 8/1/2017

    ELECTRIFICATION FUTURE

    [Key Levers]

    Contribution of Growth in Advanced Technologies

    2020 2050 Year

    Vehicles with conventional engines

    HV

    PHV

    FCV

    2010

    Sale

    s Vo

    lum

    e

    EV

  • 27R&DUnit Function 8/1/2017

    [Key Levers]

    Thank you for your kind attention