POLLUX...2013/10/03 · Zenn EV Mini EV Sport/Luxur y Toyota Prius Mitsubishi i -MiEV Think City GM...
Transcript of POLLUX...2013/10/03 · Zenn EV Mini EV Sport/Luxur y Toyota Prius Mitsubishi i -MiEV Think City GM...
POLLUX ARTEMIS Joint Undertaking ARTEMIS Joint Undertaking The public private partnership for R&D actors in embedded systems
POLLUX
Dr. O. Vermesan, Chief Scientist, SINTEF, Norway 11 July 2012, Brussels, Belgium
Distributed real time embedded systems for next generation electric vehicles architectures Joint EC / European Green Cars Initiative Clustering Event 2012
POLLUX ARTEMIS Joint Undertaking
Process Oriented Electronic Control Units for Electric Vehicles Developed on a multi-system real-time embedded platform.
ARTEMIS POLLUX
Source: Trexa
Source: DuraCar
POLLUX ARTEMIS Joint Undertaking
ARTEMIS POLLUX - Consortium
36 Partners 33 MEUR Budget
Pan-European Cooperation
10 European Countries
POLLUX ARTEMIS Joint Undertaking
ARTEMIS POLLUX – Market Context Electrical Vehicles are Coming…
2009 2010 2011 2012
Com
pact
Se
dan/
SUV
Ligh
t Tru
cks
Tesla Roadster
Fisker Karma
Zenn EV
Mini EV
Spor
t/Lux
ury
Toyota Prius
Mitsubishi i-MiEV
GM Volt Nissan Leaf
Tesla Model S
Volvo V70 PHEV Audi A1 PHEV
Ford Focus EV BYD e6 EV
Smith Electric Edison
Navistar eStar Ford Transit Connect Mercedes Vito E-cell Renault Kangoo
Bright Auto Idea
Think City Smart for two Honda insight PHEV
Toyota Rav4 EV
Cadillac XTS PHEV
Porsche 918 PHEV
Coda EV
Wheego LiFe
POLLUX ARTEMIS Joint Undertaking
1st Generation 1G
Electrified Vehicle
Modified Electro Mechanic
System
mVehicle Electro Mechanic
System
Modified ICE With Functional
Components
Concept Vehicle 2nd Generation
2G Electric Vehicle
Integrated Mechatronic
System
eVehicle Integrated
Vehicle
Integration of Mobility and
Regenerative Energy
Electric Vehicle
4th Generation 4G
iVehicle
Value Based Architecture
iVehicle Seamless
Integration
Seamless Functional Integration
Computer on Wheels
2010 2012 2015 2020 2025
Perf
orm
ance
and
Com
plex
ity
3rd Generation 3G
Embedded Vehicle
Multi Functional Architecture
sVehicle Autonomic
Driving
Integration Mechanics, Electric,
Drive Dynamics
Smart eVehicle
ARTEMIS-POLLUX
Electric vehicle generations
POLLUX ARTEMIS Joint Undertaking
EV Class vs Semiconductor
P= U x I Cost semiconductor =f(I)
If P ↑ then U ↑ also Eff = f(U)
POLLUX ARTEMIS Joint Undertaking
POLLUX addresses the embedded system needs for the next generation electric vehicles by exploiting the synergy with the ENIAC E3Car project which developed nanoelectronics technologies, devices, circuits, and modules for EVs.
POLLUX considers both vertical integration and horizontal cooperation Goal: build a solid, embedded-systems European industry while establishing standard designs and distributed real-time embedded-systems platforms for EVs.
Develop a distributed real time embedded systems (ESs) platform for next generation electric vehicles, by using a component and programming-based design methodology. Reference designs and ESs architectures for high efficiency mechatronics systems
Electric Vehicles
Renewable Energy Communication
Architecture
ARTEMIS POLLUX- Objectives
POLLUX ARTEMIS Joint Undertaking
Conventional EV architecture
Pow
er
& s
igna
l di
strib
utio
n
Chassis
Energy Powertrain
Body Power bus High performance bus
Wireless Can Bus
((((((((((((((
High demand
G
POLLUX ARTEMIS Joint Undertaking
Pow
er
& s
igna
l di
strib
utio
n
Chassis
Energy Powertrain
Body Power bus High performance bus
Wireless Internet
((((((((((((((
Distributed powertrain architecture
POLLUX ARTEMIS Joint Undertaking
Distributed propulsion
Pow
er
& s
igna
l di
strib
utio
n
Chassis
Energy Powertrain
Body Power bus High performance bus
Wireless Internet
((((((((((((((
Lower demand
A++
POLLUX ARTEMIS Joint Undertaking
EV Architecture
Power architecture for an electric vehicle
POLLUX ARTEMIS Joint Undertaking
EV Architecture - Electric powertrain
Power Signal distribution
Embedded traction control
Magn. Gear(s)
accelerator
brake
dashboard
Vehicle Computer
Wheel
e-grid
Wheel
onboard solar cells
Embedded storage control
DC
DC
DC
DC
AC
Embedded APU control
Fuel based Range
Extender (ICE, FC,…)
Direct Drive
Motor(s)
Energy Propulsion
SuperCap
Battery
Powertrain Computer
Body Com
puter
POLLUX ARTEMIS Joint Undertaking
Powertrain efficiency (ENIAC-E3Car)
Power Signal distribution
Embedded traction control
Magn. Gear(s)
accelerator
brake
dashboard
Vehicle Computer
Wheel
e-grid
Wheel
onboard solar cells
Embedded storage control
DC
DC
DC
DC
AC
Embedded APU control
Fuel based Range
Extender (ICE, FC,…)
Direct Drive
Motor(s)
Energy Propulsion
SuperCap
Battery
Powertrain Computer
Body Com
puter
Overall target: 35% savings
In comparison with conventional electronics available before E3Car
POLLUX ARTEMIS Joint Undertaking
Powertrain architecture -POLLUX
Embedded traction control
Magn. Gear(s)
accelerator
brake
dashboard
Vehicle Computer
Wheel
e-grid
Wheel
onboard solar cells
Embedded storage control
DC
DC
DC
DC
AC
Embedded APU control
Fuel based Range
Extender (ICE, FC,…)
Direct Drive
Motor(s)
Energy Propulsion
SuperCap
Battery
Powertrain Computer
Body Com
puter Overall targets
• -25% computational effort
(i.e. system partitioning) • -15% development cost, time
(i.e. simplification) • 100% system reusability
• Safety, Safety, Safety!
Power Signal distribution
POLLUX ARTEMIS Joint Undertaking
EV Architecture
No of electric motors: 1 Main batteries
ECU’s ECU’s
ECU’s
HV DC Link
In Vehicle
12-14V LV DC Link Power train
and Chassis Controller
Body Controller
AC-DC Converter Charger
Control
HV Battery
Control
DC-DC Converter
Control
LV Battery
Network
Electric
Motor
Inverter M
otor Controller
POLLUX ARTEMIS Joint Undertaking
No of electric motors: 1 Main batteries & super capacitors
ECU’s ECU’s
ECU’s
In Vehicle
12-14V LV DC Link
Electric
Motor
Inverter M
otor Controller
Power train and
Chassis Controller
Body Controller
AC-DC Converter Charger
Control
HV Battery
Control
DC-DC Converter C
ontrol
LV Battery
Network DC-DC Converter
Super Capacitors
HV DC Link
EV Architecture
POLLUX ARTEMIS Joint Undertaking
No of electric motors: 1 Main batteries, super capacitors & solar cells
ECU’s ECU’s
ECU’s
In Vehicle
12-14V LV DC Link
Electric
Motor
Inverter M
otor Controller
Power train and
Chassis Controller
Body Controller
AC-DC Converter Charger
Control
HV Battery
Control
DC-DC Converter
Control
LV Battery
Network DC-DC Converter
Super Capacitors
HV DC Link
EV Architecture
POLLUX ARTEMIS Joint Undertaking
No of electric motors: 2 Main batteries, super capacitors & solar cells
ECU’s ECU’s
ECU’s
In Vehicle
12-14V LV DC Link
Electric
Motor
Inverter M
otor Controller
Power train and
Chassis Controller
Body Controller
AC-DC Converter Charger
Control
HV Battery C
ontrol
DC-DC Converter
Control
LV Battery
Network DC-DC Converter
Super Capacitors
Ele
ctri
c M
otor
Inve
rter
M
otor
Con
trol
ler
HV DC Link
EV Architecture
POLLUX ARTEMIS Joint Undertaking
No of electric motors: 3 Main batteries, super capacitors & solar cells
ECU’s ECU’s
ECU’s
In Vehicle
12-14V LV DC Link Electric Motor
Inverter Motor Controller
Electric Motor
Inverter Motor Controller
Power train and
Chassis Controller
Body Controller
AC-DC Converter Charger
Control
HV Battery
Control
DC-DC Converter
Control
LV Battery
Network DC-DC Converter
Super Capacitors
Ele
ctri
c M
otor
Inve
rter
M
otor
Con
trol
ler
HV DC Link
EV Architecture
POLLUX ARTEMIS Joint Undertaking
No of electric motors: 4 Main batteries, super capacitors & solar cells
ECU’s ECU’s
ECU’s
In Vehicle
12-14V LV DC Link Electric Motor
Inverter Motor Controller
Electric Motor
Inverter Motor Controller
Electric Motor
Inverter Motor Controller
Electric Motor
Inverter Motor Controller
Power train and
Chassis Controller
Body Controller
AC-DC Converter Charger
Control
HV Battery
Control
DC-DC Converter
Control
LV Battery
Network DC-DC Converter
Super Capacitors
HV DC Link
EV Architecture
POLLUX ARTEMIS Joint Undertaking
EV Architecture
Modified Electro Mechanic
System
mVehicle Electro Mechanic
System
Integrated Mechatronic
System
eVehicle Integrated Vehicle
Value Based Architecture
iVehicle Seamless Function
Integration
Multi Functional Architecture
sVehicle Autonomic
Driving
Application Architecture
System Architecture
Actuator/Sensor Architecture
Module Drive
Mot
or
Susp
ensi
on
Stee
ring
Ene
rgy
Mgm
t.
Momentum
Lighting Cockpit
Bra
kes
Infotainment
Radio
Navigation
CD
RO
M/D
VD
Middleware Infotainment
Radio
Navigation
TV
CD
RO
M/D
VD
Internet
Mot
or
Susp
ensio
n
Stee
ring
Ene
rgy
Mgm
t.
Bra
kes
Powertrain
Battery
Integration via Middleware
Info Entertaining
Powertrain D
omain
Chassis D
omain
Power+Signal D
istribution
Body D
omain
Aut
onom
ic
Energy D
omain
Internet
Integration via Middleware
Info Entertaining Se
amle
ss
Cost Optim
isation
Route Optim
isation
Fleet Managem
ent
Telem
atics
Internet
Powertrain D
omain
Chassis D
omain
Power+Signal D
istribution
Body D
omain
Energy D
omain
ARTEMIS-POLLUX
POLLUX ARTEMIS Joint Undertaking
Microcontroller Platform
Power Supply
Fail SafeFunctions: watchdog
timer+ LogicPassive Filter Vbat
Inverter
Dual-coreMicrocontroller
gate driver
ShuntResistor
Controller & Communication Driver Power
InverterBLDC
CANTransceiver
externalWD
SPR
Sensors(torque, wss, etc…)
Power SupplyPower Supply
Fail SafeFunctions: watchdog
timer+ Logic
Fail SafeFunctions: watchdog
timer+ LogicPassive FilterPassive Filter Vbat
Inverter
Dual-coreMicrocontroller
gate driver
ShuntResistor
Dual-coreMicrocontroller
Dual-coreMicrocontroller
gate drivergate
driver
ShuntResistor
ShuntResistor
Controller & Communication Driver Power
InverterBLDC
CANTransceiver
CANTransceiver
externalWD
SPR
Sensors(torque, wss, etc…)
Controller & Communication + Driver
Power
Source: STMicroelectronics
Dual-core safety micro-controller platform based on the Power Architecture™ cores. Innovative safety concept matches ISO26262 ASILD;
ASIL C/D applications
Dual-core microcontroller
POLLUX ARTEMIS Joint Undertaking
Microcontroller Platform
Source: Infineon
OIKOS Platform • Silicon - AURIX • Up to 3 independent 300MHz
TriCore CPUs in one multicore silicon
• TriCore Microcontrollers • Embedded HSM • Optional integration of power
electronics
ISO26262 ASILD
ASIL C/D applications
POLLUX ARTEMIS Joint Undertaking
Networking Trends for E-Vehicles
New Boundaries are set for domains
Safety and energy saving are main drivers for new E/E architectures
System partitioning based on used voltage levels (domain interfaces)
Chassis, body, powertrain become sub-categories
Longer Duty Time (“EV never sleeps”)
Networking is (almost) never completely switched off
Alert for critical situations: system or HV battery failures
Anticipated role as “storage” medium in energy grid (while parking)
Networking becomes Part of Energy Management
Higher Bandwidth demands for communication
POLLUX ARTEMIS Joint Undertaking
FlexRay Electric brake, steering, ABS/ESP, engine ...
HS-CAN Engine management, gearbox, body control ...
[Mbps]
10
1
0.1
0.02
FT-CAN Doors, roof, dashboard, climate, ...
Electric seat Window, mirror, ... LIN
100 Ethernet
Camera based applications, backbone, infotainment, diagnosis and more
ISO11898-5
ISO 17458
IEEE 802.3
ISO11898-3
SAE J2602
Source: NXP
Networking
POLLUX ARTEMIS Joint Undertaking
PN-enabled networks are capable of operating only those parts of a network that are functionally required at a given time
Without Partial Networking:
With Partial Networking:
ECU on ECU off
ECU on All ECUs active Only selected ECUs are active
Source: NXP
Partial Networking
POLLUX ARTEMIS Joint Undertaking
Enhancements addressed in POLLUX
CAN More robustness - EMC Improvements
FlexRay More robustness for electrical vehicles
Active Star with Bit Reshaper EMC Improvements
Automotive Ethernet Comparison of different standards
POLLUX ARTEMIS Joint Undertaking
Future E/E Network Architecture
Ethernet Backbone
POLLUX ARTEMIS Joint Undertaking
IoE - ENIAC E3Car - ARTEMIS POLLUX
“Creativity is the power to connect the seemingly unconnected.”
William Plomer (African born English Writer, 1903-1973)
POLLUX ARTEMIS Joint Undertaking ARTEMIS Joint Undertaking
Thank you for your attention! Dr. Ovidiu Vermesan, [email protected]
www.artemis-pollux.eu