sustainable energy systems the eu energy research modeling tools and the high-level group on...
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Sustainable Energy Systems
The EU energy research modeling tools and the high-level group on hydrogen and
fuel cells Domenico Rossetti di Valdalbero
European Commission, DG ResearchTel.: +32-2-296.28.11 Fax: +32-2-299.49.91
E-mail: [email protected]
International Energy Workshop organized by EMF/IEA/IIASA
Laxenburg, Austria, 24-26 June 2003
Sustainable Energy Systems
Sustainable Development Gothenburg Summit Kyoto Protocol Johannesburg Conclusions
Research Policy Lisbon Strategy European Research Area Barcelona Summit
SD, global change and ecosystems Green Paper “Towards a European Strategy for the security of energy supply” White Paper “European Transport Policy for 2010: Time to decide” The EC 6th EAP “Environment 2010: our future, our choice”
DRIVING FORCES
Sustainable Energy Systems
Sustainable energy systems (810 M€)
Short and medium term impact (DG TREN)Medium and long term impact (DG RTD)
Sustainable surface transport (610 M€)
Global change and ecosystems (700 M€)
SUSTAINABLE DEVELOPMENT, GLOBAL CHANGE AND ECOSYSTEMS
(PRIORITY 6 of the 6th RTD FP)
Sustainable Energy Systems
SHORT AND MEDIUM-TERM RESEARCH ACTIONS (405 M€)
Clean energy, in particular renewables
Cost effective supply
Large scale integration
Energy savings and energy efficiency
Eco-buildings
Polygeneration
Alternative motor fuels
Sustainable Energy Systems
Fuel cells, including their applications
New technologies for energy carriers, particularly H2
New and advanced concepts in renewable energy technologies
Capture and sequestration of CO2
Socio-economic tools and concepts for energy strategy
MEDIUM AND LONG-TERMRESEARCH ACTIONS (405 M€)
Sustainable Energy Systems
INSTRUMENTS
NEW
Integrated Projects (IP)
Networks of Excellence (NoE)
“TRADITIONAL”
Specific Targeted Research Projects (STRP)
Co-ordination Actions (CA)
Specific Support Actions (SSA)
Sustainable Energy Systems
SOCIO-ECONOMIC (2003.ML)
IP/NoE TRAD.
Quantification of energy externalities
Social issues related to implementation of medium and long term energy technologies
Quantitative and qualitative forecasting methods
Sustainable Energy Systems
POLICY SUPPORT AND ANTICIPATING SCIENTIFIC AND
TECHNOLOGICAL NEEDS
Policy-orientated research
The development of tools, indicators and operational parameters for assessing sustainable transport and energy systems performance (economic, environmental and social)
Sustainable Energy Systems
EVALUATION CRITERIA (with Threshold marks)
cf. Annex B of the Work Programme CRITERION IP NoE STREP CA SSARelevance 3/5 3/5 3/5 3/5 4 / 5Potential impact 3/5 3/5 3/5 3/5 3/5S&T excellence 4 / 5 4 / 5Quality of the consortium 3/5 3/5 3/5Quality of the management 3/5 3/5 3/5 3/5Mobilisation of resources 3/5 3/5 3/5 3/5Excellence of the participants 3/5Degree of integration and the JPA 4 / 5Organisation and management 3/5Quality of the co-ordination 4 / 5Quality of the support action 3/5Overall threshold score 24
/30
20/25
21/30
21/30
17.5/25
Sustainable Energy Systems
QUANTITATIVE TOOLS
World energy model: POLES
European energy model: PRIMES
European general equilibrium model: GEM-E3
European econometric model: NEMESIS
Analytical framework for RES: SAFIRE
External costs accounting system: EXTERNE
Energy Technology Systems Analysis Programme: ETSAP
Sustainable Energy Systems
QUANTITATIVE RESULTS
World energy, Technology and climate policy Outlook - 2030 (WETO)
European energy and transport - trends to 2030
Assessing climate response options: policy simulations - insights from using national and international models (ACROPOLIS) - in collaboration with the International Energy Agency
Sustainable Energy Systems
QUALITATIVE TOOLS
Delphi method for energy technologies (2030)
Public opinion perception (Eurobarometer)
Energy technology indicators
Participatory methods
Sustainable Energy Systems
POLICY-USE OF QUANTITATIVE TOOLS
Proposal for a directive of the EP and of the Council on the promotion of electricity from renewable energy sources in the internal electricity market - COM(2000)279
Use of SAFIRE model
Green paper - Towards a European strategy for the security of energy supply - COM(2000)769
Use of PRIMES and POLES models
Sustainable Energy Systems
POLICY-USE OF QUANTITATIVE TOOLS
Green Paper on Greenhouse gas emissions trading within the European Union - COM(2000)87 final
Use of PRIMES and POLES models
Community guidelines on state aid for environmental protection - OJEC C 37/3
Use of EXTERNE accounting framework
Sustainable Energy Systems
HIGH-LEVEL GROUP ON HYDROGEN AND FUEL CELLS
Established in October 2002 by Commissioners de Palacio and Busquin
Composed of the main H2 and FC stakeholders (research community, industry, public authorities and end-users)
Requested to provide a “collective vision” outlining the research, deployment and non-technical actions needed
Sustainable Energy Systems
coal
naturalgas
bio- mass
nuclear heat
nuclear electric
wind
solar PVhydro
Residential Com-
mercialTertiary
...
solar ther- mal
H2
PS: Sizes of “sectors” have no connection with current or expected markets
H2: PRIMARY ENERGY SOURCES, ENERGY CONVERTERS AND APPLICATIONS
Sustainable Energy Systems
…
PS: Sizes of “sectors” have no connection with current or expected markets
FC TECHNOLOGIES, FUELS AND APPLICATIONS
AFC = Alkaline Fuel CellsDMFC= Direct Methanol Fuel Cell PAFC = Phosphoric Acid Fuel CellPEM = Proton Exchange Membrane FCMCFC = Molten Carbonate Fuel CellSOFC = Solid Oxide Fuel Cell
Sustainable Energy Systems
World’s number one in 2030 (?)World class competitor by 2020
Interrelated Research focused on
• Cost reduction• Materials choice and utilization• Design and manufacturing• System integration• Balance of system components• Fuels, fuel quality and fuel processing• Hydrogen production, distribution and storage• System performance (durability, efficiency)• Testing, evaluation, characterization, product
standardization
Interrelated Research focused on
• Cost reduction
• Materials choice and utilization
• Design and manufacturing
• System integration
• Balance of system components
• Fuels, fuel quality and fuel processing
• Hydrogen production, distribution and storage
• System performance (durability, efficiency)
• Testing, evaluation, characterization, productStandardizationSocio-economic research
Reg
ula
tory
Sy
ste
m
SocietyNeeds
Mark
et
Mech
an
ism
•
KEY ELEMENTS AND DRIVERS FOR A STRATEGIC RESEARCH AGENDA
Sustainable Energy Systems
Hydrogen-orientedeconomy
2050
H2 prime fuel choice for FC vehicles
A CHALLENGING EUROPEAN HYDROGEN VISIONA CHALLENGING EUROPEAN HYDROGEN VISION
FC become dominanttechnology in transport, indistributed power generation,and in micro-applications
H2 transport by road, and local H2production at refuelling station (reformingand electrolysis)
FC vehicles competitive for passenger cars
H2 produced from fossil fuels with C sequestration
H2 produced by reforming natural gasand electrolysis
Increasing de-carbonisation of H2 production;renewables, fossil fuel with sequestration, new nuclear
direct H2 production from renewables;de-carbonised H2 society
Local clusters of H2 filling stations
Stationary low temperature fuel cell systems (PEM) (<300kW)
Stationary high-temperature fuel cells systems (MCFC/SOFC) (<500kW);H2 ICEdeveloped; Demonstration fleets of FC-buses
Stationary low temperature fuel cell systems forniche commercial (<50kW)
First H2 fleets (1st generation H2 storage)
2nd generation on-board storage (long-range)
Series production of FC vehicles for fleets (direct H2 and on-board reforming)and other transport (boats); FC for auxiliary power units(incl. reformer)
Interconnection of local H2 distribution grids;significant H2 production from renewables, incl.Biomass gasification
Low-cost high temperature fuel cell systems;FCs commercial in micro-applications
Significant growth in distributed power generationwith substantial penetration of FCs
2050
H2 use in aviation
SOFC systems atmospheric and hybrid commercial (<10MW)
Widespread H2 pipeline infrastructure
Clusters of local H2 distribution grids
SKELETON FOR A EUROPEAN H2 AND FUEL CELL ROADMAP
Sustainable Energy Systems
RECOMMENDATIONS
Creation of a coherent policy framework (transport, energy and environment) rewarding technologies meeting policy objectives
Substantially increase energy RTD budget
Extend demonstration and pilot programmes
Support and integrate socio-economic research
Bringing together financing organisations
Europe-wide education and training programme
Enhancing international cooperation and communication
Sustainable Energy Systems
CONCLUSIONS Constant and durable link among European
researchers from various disciplines
A scientific “reference system” to support decision-makers
To combine quantitative and qualitative approaches
Permanent “peer-review” of tools and methodologies
Researchers should foresee and anticipate policy needs (“Roadmap”)