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Sustainable Energy Systems
Ecole Normale SupérieureParis, 17 décembre 2002
Systèmes énergétiques durables
Domenico Rossetti di ValdalberoCommission Européenne, DG Recherche
Tel.: +32-2-296.28.11 Fax: +32-2-299.49.91
E-mail: [email protected]
Sustainable Energy SystemsOriginal-Vortrag: siehe unten, Anmerkungen etc. Hans F Hoffmann
Sustainable Energy Systems
EC 6th FRAMEWORK PROGRAMME
1 Genomics and biotechnology for health 2 255• Advanced genomics and applications for health
1 100• Combatting major diseases
1 155
Focusing and integrating research Budget (MEuro)
2 Information Society technologies
3 6253 Nanotechnologies and nano-sciences, knowledge-base multifunctional materials, new production processes and devices
1 3004 Aeronautics and space
1 0755 Food quality and safety
6856 Sustainable development, global change and ecosystems 2 120
• Sustainable energy systems
810• Sustainable surface transports
610• Global change and ecosystems
700
7 Citizens and governance in a knowledge-based society
2258 Specific activities covering a wider field of research
1 300Total 13 345
Sustainable Energy Systems
Concentration on a limited number of priorities
Networking of research teams and projects
Creation of a genuine European added value
Structuring effect linking policies and schemes ofnational and regional authoritiesother European actors
Use mainly the new instruments (Integrated Projects and Networks of Excellence)
FP6 AS A TOOL FOR THE EUROPEAN RESEARCH AREA
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)
Sustainable Energy Systems
The Lisbon strategy “for the EU to become the most competitive knowledge-based economy of the world” and the Gothenburg conclusions on the EU strategy for Sustainable Development
Communications towards the European Research Area
and more specifically …
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 Environment Action Programme “Environment 2010: our future, our choice”
Kyoto and Montreal Protocols, UN Conventions on Biodiversity and Desertification; Johannesburg
Conclusions
DRIVING FORCES
Sustainable Energy Systems
OBJECTIVES
Promoting clean, safe and affordable energy
Reducing greenhouse gases and pollutant emissions
Ensuring security of energy supply
Meeting the evolving energy demand
Increasing the share of renewable energy sources
Improving energy efficiency, industrial competitiveness and quality of life
Sustainable Energy Systems
EXPRESSIONS OF INTEREST
more than 11.700 submitted overall more than 2.800 for Priority 6
775 for Energy (200 for Nuclear) 480 for Transport 1.400 for Global Change
15-20 % are mature 15% from Associated States IP/NoE ratio: 2/1
Sustainable Energy Systems
INSTRUMENTS
Integrated Projects (IP)
Networks of Excellence (NoE)
Specific Targeted Research Projects (STREP)
Co-ordination Actions (CA)
Specific Support Actions (SSA)
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
RENEWABLE ENERGIES (2003.SM)
IP & NoE STREP
Large innovative wind turbines, components and design tools
Low cost photovoltaic modules with integrated dc/ac inverters than can feed power directly into the grid
Combinations of biomass and wastes with fossil fuels
Innovative wind turbines
Transfer to industrial scale of a new generation of PV technologies
Geothermal energy Large scale integration of
renewable energy into energy supplies
CA and SSA to prepare CONCERTO ca: coord. act; ssa: spec.sup. act.
Sustainable Energy Systems
LARGE-SCALE INTEGRATION OF RES (2004.SM)
IP STREP
CONCERTO
IPs addressing the large scale integration of RES into energy supplies together with eco-buildings and polygeneration
RES electricity
Medium and low temperature RES heating and cooling
Polygeneration
Liquid and gaseous biofuelsCost Effective Supply:
not opened
RES: renewable energy systems
Sustainable Energy Systems
ENERGY SAVINGS AND EFFICIENCY (2003.SM)
IP & NoE STREP
High performance
eco- buildings
Architecture for low-energy demand buildings
Integration of renewable & energy efficiency in buildings
Low energy construction and/or retrofitting materials
Innovative building management systems (BMS)
Polygeneration:Not opened
Sustainable Energy Systems
ENERGY SAVINGS AND EFFICIENCY (2004.SM)
IP STREP
CONCERTO
IPs addressing the large scale integration of RES into energy supplies together with eco-buildings and polygeneration
Proposals for only eco-buildings or for only polygeneration will not be considered in this call.
Sustainable Energy Systems
ALTERNATIVE MOTOR FUELS (2003.SM)
IP STREP
Bio-fuels and/or hydrogen
Integration into the transport system
Demonstration of production, storage and distribution from RES
Demonstration of new ways of using alternative fuels
Strategies and tools to monitor and stimulate market demand
Assessment and monitoring of research activities
The IP should address in an holistic manner the whole alternative fuels chain, the so-called "well to wheel" approach.
Sustainable Energy Systems
ALTERNATIVE MOTOR FUELS (2004.SM)
IP only STREP
CIVITAS II.
A joint initiative with sustainable surface transport
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
FUEL CELLS (2003.ML)
IP & NoE STREP
Systems for DG, combined heat/cold and power and mobile applications from a few kW to a few MW.
Solid polymer fuel cell for stationary and transport applications
Materials, processes, components and systems for proton exchange membrane and direct methanol fuel cells
Fuel cell systems for small portable applications
Advanced computational models and simulation tools for fuel cells
Sustainable Energy Systems
HYDROGEN (2003.ML)
IP & NoE STREP
Unconventional routes for hydrogen production
Components and systems for specific hydrogen safety critical functions
Centralised and decentralised hydrogen production and purification from fossil, RES, and other
Hydrogen storage and infrastructure
Preparing for hydrogen as an energy carrier in energy systems
Safety of hydrogen technologies and harmonisation of testing procedures
Sustainable Energy Systems
ELECTRICITY (2003.ML)
IP & NoE STREP
Transmission systems
Energy storage for grid-connected applications
High temperature superconductors devices
New demand driven solutions for large scale implementation of distributed energy resources in Europe
Novel concepts and advanced components for power networks with high DER penetration
Advanced energy storage systems for RES
Sustainable Energy Systems
PHOTOVOLTAICS (2003.ML)
IP & NoE STREP
Thin-film PV technologies with higher efficiency / cost ratio
Cristalline Si modules costing below 1€/Wp
High efficiency PV through better utilisation of the solar spectrum
Organic solar cells
PV concentration
Innovative concepts for PVin buildings
MW-size PV plants
Sustainable Energy Systems
BIOMASS AND BIOENERGY (2003.ML)
IP & NoE STREP
Biofuel production fromligno-cellulosic feedstock
Production of hydrogen rich gas using multiple biomass feedstock including biomass residues/wastes
Overcoming barriers to the development of bioenergy production systems
Environmentally friendly biomass combustion technologies
Biofuels for fuel cells
Energy from bio-residues and energy crops
Sustainable Energy Systems
OTHER RENEWABLES (2003.ML)
IP & NoE STREP
Wind - new and improved concepts
Ocean (tidal and wave) energy
Concentrated solar thermal
Geothermal energy - enhanced geothermal systems
Sustainable Energy Systems
CO2 CAPTURE & SEQUESTRATION (2003.ML)
IP & NoE STREP
Pre-combustion capture technologies for CO2
Post-combustion capture technologies for CO2
CO2 capture and geological sequestration as a viable option for CO2 mitigation
Chemical/ mineral sequestration of CO2
Transport of CO2
CO/H2 and/or CO2/H2 separation in pre-combustion capture
Sustainable Energy Systems
SOCIO-ECONOMIC (2003.ML)IP STREP
Quantification of energy externalities. Social issues related to
implementation of medium and long term energy technologies
Quantitative and qualitative forecasting methods
Sustainable Energy Systems
Budget (M€)1 Management of radioactive waste 90
2 Controlled thermonuclear fusion 750 (*)
3 Radiation protection 50
4 Other activities 50
5 Activities of the Joint Research Center 290
Total 1 230
EURATOM 6th FP
(*) including EUR 200 million for participation in ITER
Sustainable Energy Systems
INDICATIVE CALL ROADMAP 2003
DeadlinesBudget
SMBudget
ML
March 2003 82 M € 198 M € 65% for IP/NOE
Dec 2003 107 M € 4 M €SSA
65% for IP
See call text for details
Sustainable Energy Systems
CORDIS:http://www.cordis.lu/rtd2002/
EUROPA: http://www.europa.eu.int/comm/dgs/research/index_en.html
DG Research energy web site:
http://europa.eu.int/comm/research/energy/index_en.html
DG Energy and Transport web site:http://europa.eu.int/comm/energy/index_en.html
External relations office
National contact points
EC officials
STAYING INFORMED
Sustainable Energy Systems
CONCLUSIONS
FP6 or a new approach : involve new participants; facilitate contacts between initiatives and identify overlaps, interactions and synergies
Consider always the overall policy context (ERA, Sustainable Development, Security of Energy Supply) and address related objectives
Focus on the topics/issues for which the call is inviting proposals
High ambitions of new instruments (complex, challenging…). Give yourselves the resources to meet the challenge
Hans F Hoffmann/ CERN-SG; Oct 2004
EU Energy Research
‘Energy, environment and sustainable development’ programmeMy contact: European CommissionDirectorate-General for Research Domenico Rossetti di Valdalbero
WETO: Business as usual, technical change as usualWorld energy demand: 1.8% increase/y; EU: 0.4%;fossil fuels ~90% of total energy supply in 2030; oil 34%, coal 28%, gas 25%; nuclear&renewable <20% in EUIn 2030,world CO2 emissions > twice 1990EU ~18%, US~50%Sufficient oil reserves exist worldwideWorld oil production to increase by ~65%Oil price is to reach 35 €/bl in 2030
2003; Directorate-General for Research EUR 20366
Hans F Hoffmann/ CERN-SG; Oct 2004
Further Assumptions and Conclusions
Hans F Hoffmann/ CERN-SG; Oct 2004
Literature
http://europa.eu.int/comm/research/energy/gp/gp_pu/article_1100_en.htmThe EU and Energy Research External Costs; Science and Technology for Sustainable Energy; European Energy Research; The European Research Area; Renewable Energy Newsletter; Vision for PV Technology; European Hydrogen and Fuel Cell Projects; European CO2 Capture and Storage projects;
European distributed energy resources projects; European Photovoltaics Projects report ; Clean, Safe and Efficient Energy for Europe; Renewable Energy Technologies and Kyoto Protocol Mechanisms; European Bio-Energy Projects, 1999-2002; New ERA for electricity in Europe; The Alternative Generation; CO2 Capture and
storage;Nuclear Fission and Radiation Protection Fusion
Hans F Hoffmann/ CERN-SG; Oct 2004
Key message of European Strategy for Security of Energy Supply
Today the EU depends on imports for 50% of its energy needs and this may rise to 70% in 2020, if no action is taken. No single energy option has the capacity on its own to fulfil all energy needs.There is a need for diversity and this has to be reflected in policy agendas and research priorities.Research has an essential role to play in enhancing and capitalising on the potential of all energy options, including nuclear fission and fusion.
European Energy Research
Hans F Hoffmann/ CERN-SG; Oct 2004
THE EUROPEANRESEARCH AREA
for a sustainable energy future
Research is becoming increasingly complex, multi-disciplinary and expensive to perform. The fragmented approach that has typified European research and development for many years is no longer adequate to meet today’s challenges.This is as true for the field of sustainable energy systems as for any other area of research and development. Advances in energy research involve long-term research programmes requiring resources beyond the capacity of any one Member State in Europe. The pressure of international competition necessitates an integrated European response.The European Research Area
Hans F Hoffmann/ CERN-SG; Oct 2004
Was tun??
Helmholtz Gemeinschaft:(„mit aller Kraft-Energie für die Zukunft“??)6 Zentren haben Energieforschung (DLR,FZJ,FZK,GFZ,HMI, IPP)Koordinierungsstelle: FZ-Jülich; EisenbeißProjekt mit HGF vorschlagen, zum Beispiel solar-thermisches Prototyp-Kraftwerk im Norden Afrikas, in Zusammenarbeit mit Italien/ENNEA?
Teilnahme an geeignetem EU-Projekt?Partnersuche: Wer sind die Europäischen Partner?Welche Industrie ist wirklich an einem Prototyp interessiert?WR:
Energieversorgung sichern, Umweltbelastungen reduzieren, Energie wirtschaftlich und nachhaltig bereitstellen, Energie haushalterisch nutzen, Energieoptionen öffnen, Staatliche Forschungsförderung stärken, Industrielle Forschung muss stärker kooperieren, Forschung und ihre Förderung bündeln, sozial und geisteswissenschaftliche Forschung integrieren, Nachwuchs fördern
250 institutes in MS: 4500 scientists; 210 institutes in nMS: 2000 scientists
CERN: 20 Member States; 2400 staff- 500 fellows, associates;~ 930 MCHF annual contributions
4231 MS722
50
732
100
10
50
30
1932 nMS
CERN collaborates with the Universities of the world
How do we collaborate: LHC Experiments
LCG-2
25 Universities4 National Labs2800 CPUs
Grid3
30 sites3200 cpus
CERN LCG-the common Grid/Cyber-Infrastructure
Internet2 land speed record: ~6
Gb/s transfer>1Terabyte
Caltech-CERN
CERN: Nobel and Millennium Price Winners
Carlo Rubbia, Simon van der Meer
Georges Charpak
Tim Berners Lee