quo vadis automotive industry upcoming challenges for a...
TRANSCRIPT
Quo Vadis Automotive Industry –Upcoming Challenges for a Global System Supplier
Dr. Peter Pleus Schaeffler GmbH
11/05/2011Page 2
Agenda
125 Years of the Automobile1The Changing Face of the Automotive Industry2Today and Tomorrow – Potentials in Powertrain3Look beyond the Day after Tomorrow4
11/05/2011Page 3
125 Years of the AutomobileFirst steps, first statements
""I believe in the horse. I believe in the horse. The automobile is just a temporary phenomenon."The automobile is just a temporary phenomenon."Kaiser Wilhelm II. (1859-1941)
Benz Motor Vehicle, 1886
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Lohner Porsche, 1900Semper Vivus(Two combustion engines, electric wheel-hub motors, battery as temporary storage)
125 Years of the AutomobileFirst steps, first statements
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Electric starter
� Bosch 1913
Variable valve train� Fiat 1972
� Alfa 1980 (mechanical)
� Alfa 1983 (electronically controlled)
125 Years of the AutomobileExamples of pioneering patents
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Agenda
125 Years of the Automobile1The Changing Face of the Automotive Industry2Today and Tomorrow – Potentials in Powertrain3Look beyond the Day after Tomorrow4
11/05/2011Page 7
The Changing Face of the Automotive IndustryMegatrends
Emission reduction and natural ressources availability
� Curb consumption
� Legal regulations (CO2, pollution free cities)
Shift to Asia
� Shift of sales and production capacity to Asia, especially China and India
Small is beautiful
� Downsizing even in medium, upper and luxury class
"Fight for Talents"
� Lack of engineers and specialist in countries with aging populations
11/05/2011Page 8
The Changing Face of the Automotive IndustryPhases of growth and consolidation
Source: Automobilproduktion, University of London, Roland Berger
1900 1950 2000 2010 2050
40,000
50
500
5,0008,000
500
30 305013 23
50 mn
800 mn
30,000
8,000
5,6005,000
Suppliers wwVehicles ww
Vehicle manufacturers ww
Proliferation ReproliferationConcentration
Phases of growth and consolidation in the automotive industry
1,500 mn?
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1 2 3 4 5 6 7 8 9
Level of mobility - vehicles per 1,000 inhabitants
Source: R. L. Polk & Co.
762 762
The Changing Face of the Automotive IndustryPotential for growth
2000
NorthAmerica
Japan WesternEurope
Russia ChinaBrazil IndiaSouthKorea
EasternEurope
2020
568 640
238 450
515 601
155 342
163 437
9 37
10 191
110 267
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� China will be largest single market and manufacturing location in 2025� Importance of the triad will be reduced
PKW Absatz
2000 2010 2025
PKW Produktion
2000 2010 2025
Source: Roland Berger
11%14%11% 8%9%5%
80% 53% 44% 86% 59% 44%
11% 14%11% 15%
6%6%3%
3%
22% 31% 21% 32%
The Changing Face of the Automotive IndustryMarketshift towards Asia
Passenger car sales
Passenger carproduction
2000 2010 2025 2000 2010 2025
OtherBRIChinaTriad
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The Changing Face of the Automotive IndustryTrend towards smaller vehicles
Source: J. D. Power
60
80
100
120
140
160
180
200
220
240
260
2005 2010 2015 2020 2025
A/B segments
Total market
E/F/sport
SUV/pickup
C/D segmentsMPV/VAN
Distribution of growth across vehicle segments
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TIER 2
The Changing Face of the Automotive IndustryNetwork of Automotive Industry Innovation
TIER 1
OEMs
Basic and industrial research
Cus
tom
ers,
pub
lic
Innovators, SMBs
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� OEM – Focus on brand, design and system integration
� Supplier – Increased level of integration know-how and system understanding on one hand, but also highly specialisted components on the other
Source: McKinsey, FAST / HAWK 2015
Wertschöpfungstiefe OEM - Zulieferer
2002 2015
Werschöpfungsanteil Zulieferer
Total
Karrosserie
Fahrwerk
Interior
Antrieb
65%
77%
35% 23%
91%
77%
76%
88%
87%
82%
69%
28%34%
65%
The Changing Face of the Automotive IndustryA shift in added value
2002 2015
Real net output ratioOEM vs. Supplier
Added valueSupplier
Powertrain
Interior
Chassis
Body
Total
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The Changing Face of the Automotive IndustryFrom components to systems
Components:�Friction optimization
�Reduction in weight
Modules:�Optimized operating behaviour
�Variability
�Lightweight design
Systems:�Optimized, variable operating strategy
�Wide level of variability
�Driving comfort
Incr
easi
ng c
ompl
exity
Incr
easi
ng c
ompl
exity
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Agenda
125 Years of the Automobile1The Changing Face of the Automotive Industry2Today and Tomorrow – Potentials in Powertrain3Look beyond the Day after Tomorrow4
11/05/2011Page 16
2010 2015 2020
Batterie elektrischer Antrieb
Plug-in Hybride u. Range Extender
Hybrid Antrieb (Mild, Full)
Optimierter verbrennungs-motorischer Antrieb,zunehmend mit Start-Stopp
Today and Tomorrow – Potentials in PowertrainMarket share of combustion engines
Source: CSM; McKinsey (Below 40 in 2050)
2020:� over 90% of
vehicles withcombustion engine
110mn
93mn
72mn
+29%
+18%
Market share of drive concepts
Battery electric drive
Plug-In Hybrids and Range Extenders
Hybrids (Mild, Full)
Optimized Combustion Engines, Start-Stop
11/05/2011Page 17
Today and Tomorrow – Potentials in PowertrainStatus quo
� Over 90% of vehicles will be equipped with an IC engine in 2020
Challenge� Optimization of combustion engine for powertrain
Action areas� Friction Reduction
� Optimization of combustion process
� Valve train variability
� Direct injection
� Turbocharging
� Electric accessory units
11/05/2011Page 18
Today and Tomorrow – Potentials in PowertrainEfficiency chain in a gasoline engine
Impact of valve train
-2%-2%
Refinery/transport
Charge cycle
Convection
Heat losses to coolant
-4%-4%
-11%-11%
-5%-5%
-25%-25%Heat losses in exhaust gas
-25%-25%
Braking losses
-3%-3%
Power train losses-2,5%-2,5%
Accessory drive-8,5%-8,5%
Friction
100% 89% 87% 32% 21% 18% 14%Crudeoil
Tank Engine Mechanical energyafter combustion
Mechanical energy
Tires Propulsion
ENERGY
11/05/2011Page 19
Fuel consumption due to throttlecontrol of charge cycle Typification of losses
� bLaWe
max
min
� bWW
� bPA
Throttled Dethrottled
� bLaWeFriction
Charge cycle
Process
Today and Tomorrow – Potentials in PowertrainThrottling losses
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Miller process� De-throttling concept
� Improved process(Charge Cooling � EIC)
ICIC
IC'IC'
Atkinson process� De-throttling concept
� Excess gas mass is pushed out during compression
ICIC
IC'IC'
Port deactivation� Swirl intake flow
� Stable and efficient combustion
SwirlSwirlportport
ChargingChargingportport
Today and Tomorrow – Potentials in PowertrainOptions for influencing the combustion process
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� Combination of de-throttlingand charge motion
Valve phasing
IV2IV1
Cylinder deactivation� Shift of operation point
� Reduction of throttling losses
� Improvement of high pressure process
max
min
be
be
Drag Curve
Cam profile shifting� Avoid interacting of exhaust
ports (I4 engine)
� Improvement in scavenging of residual gas
Cylinder 1 Cylinder 3 Cylinder 4
Today and Tomorrow – Potentials in PowertrainOptions for influencing the combustion process
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Phase shifting Duration of valve event Valve lift
Today and Tomorrow – Potentials in PowertrainVariability in the valve train
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Cam phasing
Variable valve train
Discrete (switchable)� Two-stage
� Tappet� Pivot element � Finger follower� Shifting cam� Roller tappet
� Three-stage� Rocker arm� Shifting cam
Continuous� Hydraulic
� Electromechanical
Continuous� Electric� Mechanical
� e.g. Valvetronic
� Electrohydraulic� UniAir
Today and Tomorrow – Potentials in PowertrainVariability in the valve train
Valve lift
11/05/2011Page 24
Torq
ue
Engine speed
Combustion optimization(charge motion)
DD
Max. power• Full lift• Late closure• Large overlap
AA
Optimization of pumpinglosses (combustion optimization)
EE
Today and Tomorrow – Potentials in PowertrainVariability in the valve train
BB
Max. torque• Maximum volumetric efficiency• Early closure (short valve event)
CC
Optimization of pumping losses
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Based on the NEDC and compared with the basic engine and a standard valve train
Today and Tomorrow – Potentials in PowertrainEfficiency gains for different valve train systems
Fuelsaving
Control per
Dynamic response
Variability
Variable cam timer (VCT)
Variable cam timer (VCT)
Approx. 4%
Cylinder bank
Slow
Continuous
Variable cam timer + electro-
hydraulictappet
Variable cam timer + electro-
hydraulictappet
Approx. 7%
Cylinder bank
Slow
2-stage
Variable cam timer + cam
shiftingsystem
Variable cam timer + cam
shiftingsystem
Approx. 8%
Cylinder
Medium
2-stage(3-stage)
Variable cam timer +electro-
mechanicalactuator
shaft
Variable cam timer +electro-
mechanicalactuator
shaft
Approx. 8%
Cylinder bank
Slow
Continuous
Electro-hydraulic
(intake only)
Electro-hydraulic
(intake only)
Approx. 8 -15%
Valve
Fast
Continuous
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� The Hyzem consists of an urban, an extra-urban and a highway cycle.
� Higher dynamics than NEDC.
Today and Tomorrow – Potentials in PowertrainCustomer-specific driving cycles
Frequency
Frequency
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Cylinder deactivation (CDA)
3-stage (cylinder sel.)
NEDC
Hyzem
-10.2%-10.2% -3.3%-3.3% -7.4%-7.4%-11%-11%100 %100 %
NEDC Hyzem
Base 2-stage(CDA)
3-stage(cylinderselective)
2-stage(CDA)
3-stage(cylinderselective)
Today and Tomorrow – Potentials in PowertrainFuel saving – customer specific cycle
11/05/2011Page 28
Thermodynamic improvements:
< 3% (diesel)< 3% (diesel)
Friction improvements:
Further improvements:
4-6%4-6%
Combustion systemoptimization
Pumping lossesGasoline
< 7% (gasoline)< 7%
(gasoline)
3-5%3-5%
5-8%5-8%
1-2%1-2%
1-2%1-2%
2-3%2-3%
Thermal management
Downsizing
Stop-start function
Friction reduction
Demand-controlledaccessories
Today and Tomorrow – Potentials in PowertrainOverall potential for fuel consumption savings
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� Reduction in pumping losses and optimization of combustion in the high-pressure cycle
� The variable valve train can only be assessed by using a holistic approach, which includes the control system
� The variable valve train enables downsizing and hybridization
� The driving cycle and behaviour significantly influence the savingpotentials
Today and Tomorrow – Potentials in PowertrainConventional powertrain with variable valve actuation
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Today and Tomorrow – Potentials in PowertrainFrom components to systems
Components:�Friction optimization
�Reduction in weight
Modules:�Optimized operating behaviour
�Variability
�Lightweight design
Systems:�Optimized, variable operating strategy
�Wide level of variability
�Driving comfort
Incr
easi
ng c
ompl
exity
Incr
easi
ng c
ompl
exity
11/05/2011Page 31
Double clutchtransmission
� Efficiency and fun to drive combined inthe Double Clutch Transmission
Today and Tomorrow – Potentials in PowertrainInnovative and forward-looking transmission technologies
Approx. 2.5%
Continuouslyvariable transmission
� Stepless adjustment ofthe ratio as a basis foroptimizing the operationof combustion engines
Automatictransmission
� Operating behavior oftorque converters hasbeen optimized and weight reduced
Approx. 6 - 9% Approx. 10%(dry DC vs. 6-speed AT)
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Modules:� Hybrid clutch
� Start-Stop
Systems:� eDifferential
� eWheel Drive
Today and Tomorrow – Potentials in PowertrainPortfolio extension for electrified powertrais
Components:� High-speed Bearings
for electric Motors
� One-way-clutch
11/05/2011Page 33
Today and Tomorrow – Potentials in PowertrainAutomotive applications – Combustion Engine
Application scenarios
ICE
Load profile
Citybus
Distributionvehicle
Cyclical Continuous
Hig
hLo
wLo
ad c
ase
Long-distance
truck
Passengercar
city cycle
Passenger car interurban
cycle
11/05/2011Page 34
Today and Tomorrow – Potentials in PowertrainAutomotive applications – Start-Stop
Application scenarios
Start-Stop
ICE
Load profile
Citybus
Distributionvehicle
Cyclical Continuous
Hig
hLo
wLo
ad c
ase
Long-distance
truck
Passengercar
city cycle
Passenger car interurban
cycle
11/05/2011Page 35
Today and Tomorrow – Potentials in PowertrainStart-Stop systems
Start-Stop Systems
� Hot engine start � Change of Mind �Air cond. during stop � Boosting
Belt-driven starter generator
Integrated RSGPendulum Tensioner
Permanentengaged starter
Crankshaft mounted
� additional starter required
� Engine start function
11/05/2011Page 36
Today and Tomorrow – Potentials in PowertrainAutomotive applications – (Plug-in) Hybrid
Application scenarios
Start-Stop
Hybrid
ICE
Load profile
Citybus
Distributionvehicle
Cyclical Continuous
Hig
hLo
wLo
ad c
ase
Long-distance
truck
Passengercar
city cycle
Passenger car interurban
cycle
11/05/2011Page 37
Hybrid clutch
Today and Tomorrow – Potentials in PowertrainHybrid technologies
Hybrid module
� Disconnects combustion engine from the combined electric motor and automatic transmission
� Complete system comprising a hybrid clutch and an electric motor, which can be installed on automatic transmissions
11/05/2011Page 38
Today and Tomorrow – Potentials in PowertrainAutomotive applications - Electric vehicle
Application scenarios
Start-Stop
Hybrid
REEV
EV
ICE
Load profile
Citybus
Distributionvehicle
Cyclical Continuous
Hig
hLo
wLo
ad c
ase
Long-distance
truck
Passengercar
city cycle
Passenger car interurban
cycle
11/05/2011Page 39
eDifferential
Today and Tomorrow – Potentials in PowertrainSolutions for E-Drive
eWheel Drive
� For use in hybrid and all-electric drives
� Potential for torque-vectoring
� Individual wheel drive integrated in hub
� Integrated wheel drive allows new vehicle concepts and designs
11/05/2011Page 40
Today and Tomorrow – Potentials in PowertrainACTIVeDRIVE setup
� Based on a conventional vehicle
� Remove all "conventional"components
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Today and Tomorrow – Potentials in PowertrainACTIVeDRIVE setup
� Integration of eDifferentials
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� Integration of the battery pack and power electronics
Today and Tomorrow – Potentials in PowertrainACTIVeDRIVE setup
11/05/2011Page 43
eDifferential
Inverter
Inverter
Batterypack
Control unit
DC/DCconverter
Charging plugBattery charger
Today and Tomorrow – Potentials in PowertrainACTIVeDRIVE setup
11/05/2011Page 44
Today and Tomorrow – Potentials in PowertrainACTIVeDRIVE
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Agenda
125 Years of the Automobile1The Changing Face of the Automotive Industry2Today and Tomorrow – Potentials in Powertrain3Look beyond the Day after Tomorrow4
11/05/2011Page 46
Look beyond the Day after TomorrowThe era of diversity
Com
bust
ion
engi
ne
Elec
trifi
catio
n
� Individual mobility of the day after tomorrow will be achieved by combining an optimized combustion engineoptimized combustion engine and an electrified driveelectrified drive
Start-Stop
Hybrid
REEV
EV
ICE
Load profile
City bus
Distribution vehicle
Cyclical Continuous
Hig
hLo
wLo
ad c
ase
Long-distance
truck
Passenger car citycycle
Passenger carinterurban
cycle
11/05/2011Page 47
� Optimization of conventional powertrains
� Downsizing and downspeeding
� Reduction in weight
� Reduction in friction
� Use of alternative fuels – CNG/LPG � BTL/GTL/"Sun Fuel"
� Hybridization according to the application profile
� E-mobility mainly in urban centers
� Setting up the infrastructure for e-mobility
"No silver Bullet""No silver Bullet"
Look beyond the Day after TomorrowThe era of diversity
11/05/2011Page 48
Look beyond the Day after TomorrowThe era of diversity
"Who"Who cares about thecares about the most necessary,most necessary,
willwill most safely achievemost safely achieve hishis goals."goals."Johann Wolfgang von Goethe (1749-1832)
"Wer sich dem Notwendigsten widmet, "Wer sich dem Notwendigsten widmet,
gehtgeht üüberall am sichersten zum Ziel.berall am sichersten zum Ziel.““
Together we move the world!Together we move the world!