HySYS: Fuel Cell Hybrid Vehicle System Component Development

Similar documents
Fuel Cell Hybrid Vehicle System Component Development

EU Projekt HySYS Fuel Cell Hybrid Vehicle System Component Development

HYSYS System Components for Hybridized Fuel Cell Vehicles

Our Commitment to Commercialization of Fuel Cell Vehicles and Hydrogen Infrastructure

ENABLING COST OPTIMIZED HYBRID POWERTRAINS

Dr. Jörg Wind Daimler s road to FCEV market introduction

Optimierungsstrategien für den Brennstoffzellenantrieb

Belenos Clean Power Holding Ltd. La pile à combustible, prolongateur d autonomie sans CO2 pour voitures électriques Meyrin, 26 juin 2014

EGVIA Workshop: European funded project results - Reduction of CO2 emissions from Heavy-Duty Trucks.

Implementation for. Coordination. Electrification. Action on Ppp. Road-transport. October 26, October 26,

POWERTRAIN SOLUTIONS FOR ELECTRIFIED TRUCKS AND BUSES

FEMAG-C. Serial hybrid generator for electric city cars. Hybrid Small Fuel Cells Domenico Serpella LABOR S.r.l. (ITALY)

Armands Senfelds, Leonids Ribickis, Ansis Avotins, Peteris Apse-Apsitis

Well-to-Wheel Analysis of Electrified Drivetrains under Realistic Boundary Conditions and User Behaviour

Workshop on Automotive Stack Design Options, Platform Concept, and Cost Targets

Transport Pillar Pietro Caloprisco

Holistic Energy Analysis of Various Drivetrain Topologies Close to Reality

E-DRIVE: HIGHLY INTEGRATED AND HIGH EFFICIENT

Daimler's perspective on alternative propulsion systems and the new Mercedes GLC F-CELL. Dr. rer. nat. Jörg Wind Daimler Group, Kirchheim/Teck-Nabern

E-MOBILITY. BMW GROUP TECHNOLOGY WORKSHOPS. December 2017

Progress on FCEV development and conditions for FCEV market introduction

Visions for Power Electronics in Automotive Applications

FUEL CELL TECHNOLOGY

Components for Powertrain Electrification

HyperHybrid. The efficient, affordable plug-innovation.

Fuel Cell Vehicle Program. International Conference on Innovation in Energy Technologies September 30, 2003

Hydrogen fuel cells in transport applications. Dr. Thomas Tingelöf, PowerCell Sweden AB 2017

fuel cell systems for the automotive sector

The electrification of the automobile Fuel Cell Electric Vehicles and Battery Electric Vehicles Dr. Jörg Wind

Takuya Hasegawa Senior Innovation Researcher NISSAN RESEARCH CENTER

The Electrification of the Vehicle and the Urban Transport System

THERMAL MANAGEMENT SYNERGY THROUGH INTEGRATION PETE BRAZAS

FEVE HYDROGEN TRAM. Daniel Sopeña Hydrogen Technologies Manager CIDAUT

epsilon Structural Design of Body and Battery Housing

Honda Clarity Fuel Cell HyLAW National Workshop, Budapest, 27. September 2018

China International Automotive Congress Vehicle concepts, tailor made for e-propulsion. Shenyang, 13. September 2009

The Easy Way to Electromobility

PowerCell Sweden AB. Dr. Per Ekdunge. H2 and Fuel Cells in maritime application June 2017, Valencia

Roadmaps, Projects And Future Plans of the European Green Cars Initiative PPP. Dr. Beate Müller VDI VDE Innovation + Technik GmbH Berlin, Germany

Alternative propulsion Systems with Main Focus on Electric Vehicles. A3PS-conference Alternative Propulsion Systems and Energy Carriers

Bränslecellsbaserad modul för räckviddsförlängning för elfordon MoRE-Zero ERA-NET

Battery and FC vehicles A concept to increase efficiency and range

Energy-efficient Mobility: Challenging Technologies

High Energy cell target specification for EV, PHEV and HEV-APU applications

Experience the Hybrid Drive

With system integration and lightweight design to highest energy densities

Antares DLR-H2 - Flying Test Bed for Development of Aircraft Fuel Cell Systems

Fuel Cell Systems for FCE buses

AUTOMOTIVE ELECTRIFICATION

HyTRAN. Dr. Per Ekdunge. Hydrogen and Fuel Cell Technologies for Road Transport. Hydrogen and Fuel Cell Technologies for Road Transport

Danfoss Silicon Power. Trends in Automotive and High Power. IEPE Aalborg 18 th January Danfoss Silicon Power

Future Low Carbon Vehicles

Accelerated Testing of Advanced Battery Technologies in PHEV Applications

AutoStack-CORE Automotive Fuel Cell Cluster for Europe II

Comparing the powertrain energy and power densities of electric and gasoline vehicles

Green Cars Forward Thinking

Lithium-Ion Battery for Audi A6 PHEV. Steve Lehnert, AUDI AG

Innovative hydrogen storage systems and components for stationary and mobile applications

HIGH PERFORMANCE 800V E-MOTOR

Sustainable Personal Electric Transportation: EVs, PHEVs, and FCVs Andrew Burke Institute of Transportation Studies University of California-Davis

Fuel Cells for Rail Applications

INDUCTIVE POWER TRANSFER CHARGING STATION FOR STATIC AND DYNAMIC CHARGE OF ELECTRICAL VEHICLES

Proton Motor Fuel Cell GmbH. Cleantech Power Solutions

Powertrain & Thermal Systems

Transmission Technology contribution to CO 2 roadmap a benchmark

OEM Vision and Requirements Viessmann Approach to the FC Market

System Engineering for Energy Storage Systems

Magna Powertrain edrive System: One-Stop-Shop for Hybrids and Electric vehicles

OPTIMORE - Optimised Modular Range Extender for every day customer usage AVL SCHRICK project summary

Since the necessity of the wireless and mobiles electronic devices, the estimation of state

The role of Hydrogen in Sustainable Mobility

GIANTLEAP Giantleap Improved Automation of Non-polluting Transportation with Lifetime Extension of Automotive PEM fuel cells

The DLR Project Next Generation Train (NGT)

Progress at LAT. October 23, 2013 LABORATORY OF APPLIED THERMODYNAMICS

Effects of Battery Voltage on Performance and Economics of the Hyperdrive Powertrain

AABC Europe 2017 Mainz, Germany Dr. Jörn Albers, Dr. Christian Rosenkranz Johnson Controls Power Solutions EMEA. Johnson Controls Power Solutions EMEA

PROGRESS OF BATTERY SYSTEMS AT GENERAL MOTORS. Manfred Herrmann Roland Matthé. World Mobility Summit Munich October 2016

Benefits of SiC MOSFET technology in powertrain inverter of a Formula E racing car

SUPERCHARGER AND TURBOCHARGER

MARANDA project overview at M20/M48

The Future of Powertrain The Voltage is Rising!

Electric Drive Technologies Roadmap Update

SiC for emobility applications

TechSim Engineering Company Profile

Conference: Regional Power for Clean Transport, Oslo. Towards Fossil Free Transport :30-10:50. Rosario Berretta,

Automotive Drive and Motor Solutions for the Automotive Industry

Integrated Architectures Management, Behavior models, Controls and Software

VIRTUAL HYBRID ON THE ENGINE TEST BENCH SMART FRONTLOADING

Plug-in Hybrid Vehicles

Electronic Architecture for next Electrical Vehicle Generation

Influences of different heating concepts for the energy demand of an airfield luggage tug

What has the David & Goliath Story things to do with LB&T, David?

Fuel Cell Systems Product Overview. Systems

Pathways to Sustainable Mobility

Top Loader Electrification Proposal for POLA Operations

New Technologies for Fuel Cells in Future Powertrain Applications

2010 Advanced Energy Conference. Electrification Technology and the Future of the Automobile. Mark Mathias

Focus on the Future Powertrain Strategies for the 21st Century

ISH2SUP (245294) Aarne Halme Aalto university

Session-III: Mobile Applications (Automotive / Material Handling)

Transcription:

HySYS: Fuel Cell Hybrid Vehicle System Component Development Project Overview Final Event 22.09.2010 Stuttgart, Germany Jörg Wind Daimler AG

FC Hybrid Vehicle System Component Development FACTS Coordinator: Daimler AG Total budget: 22.7 M EC-Funding: 11.2 M Partners: 28 (17 Industry, 2 SMEs, 4 Institutes, 5 Universities) Countries: 8 EC Member States and Switzerland Duration: 01.12.2005 30.11.2010

HySYS - Fuel Cell Hybrid Vehicle System Component Development IP-Partners 6 OEM s 14 Suppliers 3 Institutes 5 Universities Wind, Daimler HySYS Final Event September 22nd, 2010 3

Motivation Motivation, Objectives Improvement of system components for FC-hybrid vehicles is necessary to meet all necessary requirements for mass production Involve supplier industry more deeply in FC- and ICE Hybrid component development by cooperation in a European project Close cooperation of car industry with suppliers is needed for a successful market introduction of FC-vehicles Objective Improved low cost FC-system components (air supply, hydrogen supply, humidifier, H 2 -sensors) suitable for mass production Improved low cost E-drive components (E-motor, power electronics, battery) suitable for mass production Optimised system architecture for low energy consumption and high performance All achievements will be validated in vehicles (2 validators) 4

Project Goals Improvement of fuel cell system components for market readiness Improvement of electric drive train components (Synergies FC and ICE-hybrids) for market readiness Optimisation of system architecture for low energy consumption, high performance, high durability and reliability Optimisation of energy management, enhanced FC-drive train efficiency Development of low cost components for mass production Validation of component and system performance on FC Vehicles

Regarded Components Low cost automotive electrical turbochargers for air supply with high efficiency and high dynamics Low cost humidifiers with high packaging density Low cost hydrogen sensors for automotive use Effective low cost hydrogen supply line High efficient, high power density electric drive train Low cost high power Li-Ion batteries

Definition of Vehicle Requirements Parameter Motor Power (cont/peak) Fuel Cell Power Gearbox Batterie LiIon Weight empty/fully loaded Range at ½ load Vmax Vmax continuous DAIMLER Validator (MB-Sprinter) 70/100 kw 80 kw One gear ratio 30 50 kw, 2 kwh <= 2.7 t / 3.5 t > 300 km 130 km/h @ grade 0% CRF Validator (FIAT Panda) 40/75 kw 60 kw (nominal) 75 kw (peak) One gear ratio Not foreseen 1.4 t / 1.7 t 250 km 140 km/h @ grade 0% Acceleration Climbing ability fully loaded Vmax at ½ load on 4% slope 0-80km/h < 21 s 0-100 km/h < 37 s 35% N/A 0-50km/h < 7 s 0-100 km/h < 15 s 23 % > 80 km/h 7

HYSYS component integration The HySYS validators use different base fuel cell systems and e-drive train components Some major components are replaced by those which are developed in HySYS HySYS components which are integrated in the validators: Air suppply: electric turbo charger and integrated air sensor Hydrogen Metering Device Hydrogen humidification system Electric Motor Inverter DC/DC converter Li-Ion battery system HySYS Base FC System for Daimler validator 8

Validator Vehicle: Mercedes Benz FC-Sprinter Vehicle Integration DAIMLER Validator: Packaging Concept Converters HV Battery HV Battery Air supply Drive Train H2 Storage FC Stack 9

Validator Vehicle: FIAT Panda VEHICLE INTEGRATION CRF VALIDATOR: Packaging Concept HRB Air supply H2 Storage HMD FC Stack E motor 10

Fuel Cell System Components, #1 Air supply Current Technology: Screw-Compressor Innovative Technology: Electrical Turbocharger High Efficiency Low Cost, volume& weight High Dynamic response Noise reduction Humidifier Current Technology: Contact humidifier Innovative Technology: Gas-to-gas humidifier high packaging density high humidification efficiency low degradation tendency low cost materials easy production technology Involved partner: Fischer, Daimler, Bosch Involved partner: Fumatech, Daimler, Wind, Daimler HySYS Final Event CRF, September Rivoira 22nd, 2010 11

Fuel Cell System Components, #2 Hydrogen Sensors Current Technology: electrochemical sensors, semiconductor sensors, catalytic bed sensor Innovative Technology: Palladium Nanostructure Low cost, weight&volume Fast response No calibration needed High gas selectivity Integrated design Hydrogen supply line Current Technology: standard H2 line with pressure regulator valves Innovative Technology: Fully automated H2 line with Hydrogen Metering Device dual stage pressure reduction fully automatic operation flexible regulating FC stack pressure fail safe with failure recovery improved lifetime of FC system Involved partner: EPFL, MiCS, PSA, Involved partner: Bosch, CRF CNM, Wind, Univ. Daimler Montpellier HySYS Final Event September 22nd, 2010 12

E-Drive Components E-Drive System Current Technology: AC induction and PM brushless with low liquid cooling temperature (55-60 C) power electronics Innovative Technology: Buried PM synchronous and mixed motors e-motor: higher specific torque-power and efficiency power electronics: higher integration and cooling temperature (up to 90 C) HV-HV DC/DC converter: modular solution with high power density Battery System Current Technology: Ni-MeH Innovative Technology: Li-ion higher specific power: from 1.35 to 2 kw/kg higher specific energy: from 46 to 63 Wh/kg higher efficiency: from 85 to 95% improved lifetime: from 8 to 15 years E-motor Inverter HySYS Battery Module HySYS Battery System Involved partner: CRF, Eldor, Daimler, PSA, Involved partner: Saft, Daimler, PSA, ContiTemic, ContiTemic, ATB, Univ. Maribor Magna, ENEA 13

HYSYS WP 5100, Full power Fuel Cell Van Parameter characteristics of fuel cell system during NEDC driving cycle 300 Requested Current Electrical Load 240 180 120 60 0-60 -120-180 -240-300 1 370 361 1 2 Stack Voltage 352 343 334 325 316 307 298 289 280 1 360 320 1 Air mass flow 280 240 200 160 120 80 40 1 Stack Current 0 1 360 320 280 240 200 160 120 80 40 0 1 1 50s 1m 40s 2m 30s 3m 20s 4m 10s 5m 0s 5m 50s 6m 40s 7m 30s 8m 20s 9m 10s 10m 0s 10m 50s 11m 40s 12m 30s 13m 20s 14m 10s 15m 0s 15m 50s 16m 40s 17m 30s 18m 20s 19m 10s HySYS Final Event September 22nd, 2010 14

HYSYS WP 5100, Full power Fuel Cell Van Fuel Cell System Efficiency Comparison Fuel Cell system efficiency comparison 70 60 efficiency [%] 50 40 30 20 10 0 EUCAR TTW (V2c 07) HySYS efficiency (Faraday) 0 10 20 30 40 50 60 70 80 90 100 Net Power [%] Fuel Cell System Comparison: HySYS fuel cell system efficiency compared with fuel cell system efficiency curve from EUCAR WTW Study HySYS Final Event September 22nd, 2010 15

Thank you very much for your attention More information on: http://www.hysys.eu 16