renewable energy initiatives in italy - eera · scale of the renewable energy resources of these...
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www.eera-set.eu
European Energy Research Alliance
EERA Ocean Energy Annual Assembly Wednesday 12th September 2012 Alessandro Iafrati, Emilio F. Campana CNR-INSEAN
Renewable energy initiatives in Italy
Public Funding (MIUR) • Ministry of Education and Research support
research through PRIN and FIRB programs and coordinates some EU funds through specific calls (PON)
RBAP115YN (FIRB), 302 kE, Hydrogen RBPR05JH2P (FIRB), 9.2 ME, Hydrogen GELMINALCAL (PON), 15 ME (50% public), Wind AMICA (PON), 20.9 ME, Wind, Solar Photovoltaic NANOSOLAR (FIRB), 4.2 ME, Solar Photovoltaic GYROSCOPIC CONVERTER (PRIN), 30 kE, Ocean Energy
www.eera-set.eu
Public Funding • Under negotiation or recently started
APOLLO (PRIN), 389 kE, Concentrated Solar Power FLORENS (PRIN), 1.5 ME (66% MIUR, 34 Cofund), Offshore wind PONREC (PON), 30 ME (70% public), Wind, Solar Photovoltaic BIOCHAMP (PON), 48 ME (70% public), Biofuels, Bioenergy SEAPOWER (PON), 1.2 ME, Ocean energy
www.eera-set.eu
Public Funding Other Mins • MISE, Min. Industrial and Economic Dev.
Energetic potential of waves and currents in Italy, 800 kE, Ocean Energy
• MA, Min. Environment
U-OWC POSEIDONE, 1 ME, Ocean Energy
www.eera-set.eu
Public Funding (Regions) • Other EU funds are managed by Regions
Ponte di Archimede, 1.8 ME, about 10% Regione Veneto (TBC), Ocean Energy
EWS, 120 kE (80% Regione Piemonte), Ocean Energy REMOTO, 4.4 ME (Regione Sicilia), Ocean Energy
www.eera-set.eu
Public Funding (MIUR)
www.eera-set.eu
• Technological Clusters A call for the formation of Technological Clusters is open (deadline
Sept. 28th). Aims: promote the formation of national clusters gathering
together Universities, Research Inst., Industries and Technological Districts
9 sectors: Green Chemistry, Agrifood, Technologies for life, Life Sciences, Smart Communities, Transport (terrestrial and marine), Energy, Aerospace, Smart Industries
4 Industrial Project (10-12 ME) will be financed In Energy innovative systems for sustainable energy (even from
Ocean) can be proposed. Some feedbacks indicate that the industrial interest for the Ocean Energy is weak
Public Funding - RITMARE
www.eera-set.eu
Public sector: CINFAI, CoNISMa, INGV, OGS, SZN, ENEA
Private sector: Technology Districts (Distretto Ligure Tecnologie Marine, Distretto Siciliano Trasporti Navali Commerciali e da Diporto, Distretto Tecnologico Agro-Bio-Pesca, Distretto Tecnologico Regionale Navale e Nautico), CETENA, CONSAR, FINCANTIERI, RINA, UNIMAR
Intermediate user ISPRA
Stakeholder Forum Civil Protection Department, Italian Navy, ARPA, etc.
Coordinator National Research Council (CNR)
Funding (250 M€) Ministry of University and Research
Partners
• RITMARE The Italian Research for the Sea
Public Funding - RITMARE
www.eera-set.eu
• 7 SubprojectsTechnological Clusters SP1: Maritime Technology SP2: Technologies for Sustainable Fisheries SP3 and 4: Planning of the Maritime coastal zones and Planning
for the exploitation of the deep and open sea SP5: Observation System for the Mediterranean marine
environment SP6: Research, Education and Outreach SP7: Interoperable infrastructure for the Observation System
network and data
Although mainly focused on marine technologies and maritime industry, several research themes are in common with ocean renewable energy , e.g underwater structural monitoring, new materials, development of software tools, natural hazard,…
www.eera-set.eu
EERA and EERA Marine
Alessandro Iafrati INSEAN - National Research Council (CNR) [email protected]
ADEME Overview of R&D activities
Armelle de Bohan European Research Affairs
ADEME, Research and Advanced technology unit
2
About ADEME
ADEME ? French Environment and Energy management Agency
Public organisation in charge of implementation of energy and environment policy (except water and biodiversity)
A broad range of tools from Research to field implementation (e.g. Training, decision-support tool for local authorities, companies, civil society,…)
3 central services and 26 regional divisions
Staff: 1000 persons
Overall budget for implementation: 700 M€
3
R&D for ADEME : an implementation scheme
A goal-oriented agency in charge of coordination, orientation and support to research in its fields of intervention
No research labs of its own but thematic experts in charge of the follow-up of a specific area (e.g. Ocean Energy, forestry, organic waste, urban planning,…)
– 101 R&D officers (70 technical and 31 administrative). – 2 full-time persons active in Ocean Energy sector (Vincent Guénard, Nicolas Blanc) and 1 Energy
Research Coordinator (Nicolas Tonnet)
A dedicated research budget implemented through an EC notified Research and innovation support system
An increasing interaction with industrialisation support schemes in our fields of action
4
R&D activities coverage
Developing knowledge and technology
ADEME Ph.D R&D projects
Industrial project Demonstration
« Investments for the future » programme (Management,
national scope only)
Strategic roadmaps
5
ADEME PhD scheme
1 Call for application per year
60 PhD per year : – More than 1000 PhD since 1992 ; – Connection with more than 560 Research labs ; – 90% through cofinancing
1 average PhD / year on hydroelectricity / marine energy – 2 on going PhD on Ocean Energy (both in LEGI, Grenoble)
– Experimental characterization of stalling dynamics in marine current energy converter (transverse flow) through PIV - Comparison with the results from modeling
– Modeling of marine energy converter farms (Saturne Code)
Selected PhD students become ADEME employees under a 3 year contract
6
ADEME R&D projects 10 main research programs (strategic research under revision) :
– Building, Transport, Renewable Electricity, Smart grids and storage, CO2 capture and storage, Ecotechnologies, Environmental impacts of air and soil pollutions, waste management, bioenergy and bioproducts, socio-economy and foresight studies
Yearly implementation through calls for proposals mainly – Around 300 research grant agreement per year ; – Average grant budget : 350 k€ ;
Call for proposals on « Optimised integration of Renewable energy and electricity demand management »
Examples of Ocean Energy ongoing projects: – Storage system on Pelamis wave energy converter (SeaWatt, Mines Paris Tech, ECN,
Piment) – Optimization and conversion solutions for current energy pilot farm in Paimpol-Bréhat
(EDF) – Ocean energy and Biodiversity study (UICN)
7
Strategic roadmap objectives
Participate in the creation of shared visions of the technological object or socio-technical system covered by the roadmap;
Identify research priorities, needs for research demonstrators, platforms, ndustrial roll-out
Define research objectives (eg cost, sustainability, performance, reliability) at different time horizons (2050 with 2030 milestone).
Enlighten the French academic and industrial positioning on a given topic
Setting-up of an ad hoc expert group (industry, academics) with monthly meetings over a 6 month period
Feuilles de route
8
« Investments for the future » Programme (out of Eranet scope – for information only)
National demonstration Programme for Renewable energies and sustainable chemistry : 1350M€
Marine Energy call for interests (2008) – 5 demonstrators funded officially launched in 2010 – 2 marine energy demonstrators: Sabella (D10 in Ouessant
Island), Alstom (Orca, Paimpol-Bréhat) – 1 wave energy converter demonstrator (SBM, Le Croisic SEM-
REV)
NER 300 (with Investments for the future cofinancing) – Normandie Hydro (EDF Energies nouvelles,Raz Blanchard): 10
marine current energy converter (17MW, 175GWh/year)
Feuilles de route
9
Test Sites for Ocean Energy coordinated by France Energies marines
Feuilles de route
Funding
Regional funds (notably ERDF) Industry Research organisations
10
ADEME in European Research Area
Large experience of the Eranet scheme – 15 participation as active partner (WP or task leader) or associated – Official partner of PV (Solar) Eranet, Geothermal, Smart grids, Bioenergy – Involvment in 15 joint calls for proposals so far
FP7 Energy National Contact Point and involvment in Programme Committee
Follow-up of 2014-2020 negociations of Horizon 2020 (Eranet, PPP) and possible links with cohesion policy
Follow-up of the SET Plan implementation (and revision under H2020)
Thank you for your attention [email protected]
11
Ocean Energy R&D in Ireland
EERA Ocean Energy JP Annual Assembly
London 12th September 2012 Brian O’Mahony
OE Programme Actions
2010 2011 2012 2015 2020
Context & Strategy
The Strategy for Renewable Energy 2012 - 2020
Five Strategic Goals 1. Progressively more renewable electricity from onshore and
offshore wind power for the domestic and export markets. 2. A sustainable bioenergy sector supporting renewable heat,
transport and power generation. 3. Green growth through research and development of
renewable technologies including the preparation for market of ocean technologies.
4. Increase sustainable energy use in the Transport sector through biofuels and electrification.
5. An intelligent, robust and cost efficient energy networks system.
The Market – Industrial Development & Export of electricity
WHY? Potential to generate economic contribution by the ocean energy industry in terms of energy output (export of energy) and industrial development (innovation, devices, supporting services, etc…) • Export of Energy Ireland has sufficient generation to meet its electricity needs. • Industrial development Maximise contribution of ocean energy industry to economy – development of technology, market enablers – grid, test infrastructure, consenting…
Ireland’s Offshore Renewable Resource
International
OE Development Roadmap to date
2008 2010 2012 2015 2018 2020
Full scale demonstrators
Small-scale arrays 10/20MW
Arrays of 100s MW
Publish updated Plan
(OREDP)
Support Pilot projects, new concepts
Original 2020 target of 500
MW
Now pending revised OREDP and direction from reconstituted interdepartmental governance mechanism.
OE Programme Actions
2010 2011 2012 2015 2020
Research Infrastructure and Test/Demo Sites
Mayo Wave Test Site Full-scale grid-connected
Galway - SmartBay Wave Energy ¼ scale test site
Strangford QUB Tidal Test facility
Research Infrastructure and Test/Demo Sites
Beaufort Laboratory HMRC / IMERC
AMETS Test Site Locations & Seabed Profile
AMETS, Belmullet Full Scale Wave Energy Test Site
• Full scale test site + full scale wave resource
• Pre-consented for typical WEC designs
• 10MW export capability
• 2x test areas, at 50m & 100m water depths
50m: Wave power = 45kW/m2 Wave height = 2.5m
100m: Wave power = 60kW/m2 Wave height = 3.2m
• Live wave, weather and current monitoring
Infrastructure Cable to Galway Test Site/SmartBay
Linking Industry / Test Sites / SmartBay
OE Programme Actions
2010 2011 2012 2015 2020
Industry Support Prototype Development Fund
Industry Support Scheme - SEAI
Scope • Industry-led projects to develop and test wave and tidal energy capture
devices and systems; • Independent monitoring of projects/technologies; • Industry-led R&D aimed at the integration of ocean energy into the
electricity market and the national electricity grid (and network) • Data monitoring, forecasting, communications and control of OE systems • Specific industry-led research projects which will be carried out by research
centres, third level institutions and centres of excellence Status • 33 company projects supported. Value - €15m. Grant support €4.8m
Development Protocol for OE Technologies used for Industry funding evaluation
Projects Supported
Near Shore Device Cyan Technologies Carnegie/CETO Attenuator Seapower - Hammerhead OCRE Ltd (energy storage) Waveberg Wave Energy Ireland Power Take Off Seapower – C Pump Limerick Wave Blue Power Houston Engineering OWC Ocean Energy Ltd
WECs Jospa – Irish Tube Compressor Jospa – Chuter Key Engineering Benson Point Absorber Wavebob Tidal Energy Open Hydro TEL Others / Supporting Services IBM – acoustic MRIA WestWave (ESBI) OpenTank Technology from Ideas
Commercialisation Fund Proof of Concept
Innovation Partnership
Feasibility Study
R&D Fund <€150k
Innovative HPSU
Growth Fund
Mixed packages R&D Fund >€150k
Early stage R&D work R&D support Company Growth
Enterprise Ireland support for R&D and company growth
Projects should:
• A unique approach over existing alternatives
• Address a significant customer/end-user need
• The potential to positively impact the Irish economy
Innovation Voucher
OE Programme Actions
2010 2011 2012 2015 2020
Support grid infrastructure development studies
ISLES Study
• Investigating the potential of creating an offshore interconnected electricity grid based on renewable resources
• Concluded that it is economically viable and competitive under certain regulatory frameworks
• Resource potential of 16GW
Export of Renewable Electricity
The Irish Government, working together the UK Government, acknowledges the scale of the renewable energy resources of these islands and through the British Irish Council and other fora, are actively working to develop cross border trade in renewable energy initially between Ireland and the UK but also in time to mainland Europe.
Study of exporting renewable electricity Study on the viability and cost benefit analysis for Ireland of exporting renewable electricity using the co-operation mechanisms in Directive 2009/28/EC • Assumes Ireland meets its binding target domestically and monetises additional
RES-E production through exports • Assumes no additional burden on tax-payer or consumers to fund infrastructure • Projects are developed under Joint Project frameworks or statistical transfers
Supply Chain – Database online now!
Supply Chain report and database for Marine Energy including Offshore Wind, Wave and Tidal on www.seai.ie and www.enterprise-ireland.com
ICOE 2012 The National Convention Centre October 17-19
Thank You
Thank you and further Information Sustainable Energy Authority of Ireland www.seai.ie/oceanenergy Enterprise Ireland www.enterprise-ireland.com Marine Institute www.marine.ie
Jeroen De Maeyer Sustainable Energy Technologies 1
JEROEN DE MAEYER, Business Development Manager
Ocean energy activities in Flanders (Belgium)
EERA – JP – Ocean Energy ERA-Net-Ocean
Jeroen De Maeyer Sustainable Energy Technologies 2
Ghent University & SET
• Ghent University (UGent) - Flanders, Belgium. 5.000 researchers
32.000 students 11 faculties
• Faculty of Engineering and Architecture 2200 students 850 (a.o. 150 professors) From architecture, materials over ICT to electrical, mechanical and
thermal energy systems
Ghent Sustainable Energy Technologies (SET)
Competence centre, cluster of research groups from Ghent University A.o. compentence in Ocean Energy: Dept. Of Coastal Engineering
(prof. J. De Rouck, P. Troch, M. Vantorre)
Jeroen De Maeyer Sustainable Energy Technologies 3
UGent ocean energy
• >1977 study point absorber WECs (Marc Vantorre) • >1997 study of the feasibility of WEC along Belgian cost • 2003-2009 coordinator of EU-FP6-SEEWEC • >2004 Farm layout of WEC • >2006 wave energy converters based
on overtopping • >2006 TEC • 2008-2012 OPTIEP and BOREAS • >2009 FlanSea
Jeroen De Maeyer Sustainable Energy Technologies 4
UGent ocean research
Many master thesis, multiple PhD e.g. • [2013] Vicky Stratigaki; Park layout simulation • [2012] Lander Victor; Optimization of the hydrodynamic
performance of overtopping wave energy converters: experimental study of optimal geometry and probability distribution of overtopping volumes
• [2010] Charlotte Beels; Optimization of the lay-out of a farm of wave energy converters in the North Sea : analysis of wave power resources, wake effects, production and cost
• [2010] Griet De Backer; Hydrodynamic design optimization of wave energy converters consisting of heaving point absorbers
Jeroen De Maeyer Sustainable Energy Technologies 5
Ocean energy activities in Flanders (Belgium)
*** disclaimer: this is an overview to the best of my knowledge ***
UGent – JP Ocean leader BERA (Belgium Energy Research Alliance, member SC EERA)
Jeroen De Maeyer Sustainable Energy Technologies 6
R&D centra
• R&D centres involved in ocean energy
Jeroen De Maeyer Sustainable Energy Technologies 7
Industrial players
First stakeholder analysis
Jeroen De Maeyer Sustainable Energy Technologies 8
Projects
System and component level research - past 1. EU-FP6-SEEWEC System and component level research - running 1. FlanSea 2. Laminaria Potential studies BCS (Belgian Continental Shelf) 1. BOREAS (&OPTIEP) Semi commercial projects 1. 7th concession offshore wind 2. Tidal energy projects Pro-Tide and Islay
Jeroen De Maeyer Sustainable Energy Technologies 9
EU-FP6-SEEWEC
• FP6 project – UGent: coordinator
– Partners: a.o. Fred Olsen, ABB, NTNU, Chalmers – Flemish partners: UGent, Spiromatic (composites)
• Development of point abosrber type of WEC – First on “FO3” – Next on “Bolt”
• Flemish contribution – Operation in farm layout
– Slamming of buoys
Confidential and Proprietary 11/9/12
FlanSea
Flanders Electricity from the Sea IWT-O&O-project • Period: 01/09/2010 – 31/08/2013 • Budget of €3.4M Targets • To create and validate numerical design and modelling tools • To gain insights in the control strategies • To learn about the mechanical and electrical robustness challenges • To create a laboratory test buoy and retrieve data of the buoy
behaviour in open sea • To evaluate the feasibility of WECs on the BCS and in moderate wave
climates
Confidential and Proprietary 11/9/12
FlanSea I locations
Jeroen De Maeyer Sustainable Energy Technologies 12
Laminaria
• Flemish funded R&D project (IWT) • Partners: Laminaria & Haven Oostende & UGent • First prototype made and tested in lab conditions
Jeroen De Maeyer Sustainable Energy Technologies 13
OPTIEP & BOREAS
• Supported by the National fund for research (BELSPO) • Potential studies of wave and tidal energy on BCS • Based on buoy measurements and propagation models • Analysis of potential converter technologies suited for BCS • Executed by UGent and KULeuven
Jeroen De Maeyer Sustainable Energy Technologies 14
Semi commercial projects
Mermaid Offshore wind (450MW) + Wave energy (20MW)
Jeroen De Maeyer Sustainable Energy Technologies 15
Semi-commercial projects
Pro-Tide EU-Interreg application: testing of different tidal energy converter concepts at different locations Testing partners • UK: Ilse of Wight Council • UK: Dover Harbour Board • NL: Provincie Zeeland • BE: Waterways and Seacanal Knowledge Partners: • BE: Waterbouwkundig Laboratorium • NL: Hogeschool Zeeland • FR: LOG Wimereux (ULCO and University of Lille)
Jeroen De Maeyer Sustainable Energy Technologies 16
Semi-commercial projects
DEME Blue Energy (DBE) has shown increased interest in tidal energy projects in the UK, e.g. Islay 30MW
Jeroen De Maeyer Sustainable Energy Technologies 17
Contact
Jeroen De Maeyer SET consortium p/a EELAB Sint-Pietersnieuwstraat 41 9000 Gent 09/264 79 14 [email protected] www.set.ugent.be
Research Councils UK Energy Programme Marine Energy Portfolio
Dr Lewis Preece – 12th September 2012 For a Low Carbon Energy Future
Mission
Launched with investment announced in 2002.
Continues to be a major investment strand (£540m over 4 years from 2011-15 Spending Review period).
Key UK Targets:
80% reduction in greenhouse gas emissions by 2050. 15% of energy from renewable sources by 2020. Increases in energy efficiency.
Drivers:
Tackling climate change by reducing carbon dioxide emissions both within the UK and abroad. Ensuring energy security. Ensuring energy affordability.
To position the UK to meet its energy and environmental targets and policy goals through high quality research and postgraduate training.
Strategy Planning and Management
The Councils working together strategically over the last three spending reviews.
Brings together all our energy-related activities.
High level input from a Scientific Advisory Committee: industry, academic, TSB, DECC & BIS representation.
Links to other Research Council priority themes such as Living with Environmental Change and Global Uncertainties.
BBSRC
STFC
EPSRC
ESRC NERC
Working together
across the Councils to plan and support energy
research and training
The Research Councils working together to plan, develop and deliver energy research and training within a common strategic framework.
TSB
Our Objectives
To support a full spectrum of Energy research to help the UK meet the objectives and targets set out in the 2007 Energy White Paper.
To work in partnership to contribute to the research and postgraduate training needs of energy-related business and other key stakeholders.
To increase the international visibility and level of international collaboration within the UK energy research Portfolio.
To expand the UK research capacity in energy-related areas.
The Energy Landscape
Public Sector organisations working together to provide coordinated activity and a complete innovation chain. Coordinated through the Low Carbon Innovation Group led by DECC.
Research Applied research and development
Demonstration
Pre-commercial deployment
Reg
iona
lN
atio
nal
Euro
pean
Research Councils
Technology Strategy Board
Energy Technologies Institute
Carbon Trust
Environmental Transformation Fund
Framework Programme
RDA Schemes
Devolved Administrations
Ene
rgy
Gen
erat
ion
Kno
wle
dge
Tran
sfer
Net
wor
k di
ssem
inat
ing
info
rmat
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and
prov
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g fu
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g ad
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£0
£20.000.000
£40.000.000
£60.000.000
£80.000.000
£100.000.000
£120.000.000
£140.000.000
£160.000.000
2002-3 2003-4 2004-5 2005-6 2006-7 2007-8 2008-9 2009-10 2010-11
Valu
e (£
M)
Financial year
Growth in Support by Theme
STFC facility support
UKERC
Social Economic and Policy
Nuclear
Conventional Energy Sources
Power Networks
Sustainable Energy Vectors
Energy Demand Reduction
Renewable Energy Sources
Growth in Annual Expenditure by Research Theme, 2002-2011
£725 million invested in skills,
research and knowledge transfer
£641 million for research
grants
£84 million for doctoral
training
Marine Portfolio Overview
Portfolio Total £18.5M • £10.9M Targeted Funding • £150K Responsive Funding • £6.5M Postgraduate Training
Recent Activities: • Marine Hub (UKCMER) started 2011. • Marine challenges research calls I & II. • Edinburgh All-Waters Wave Tank • IDC in Offshore Renewable Energy
SUPERGEN
Over £60m of support from the Energy Programme
5 Hubs. 7 Research Consortia. Over 40 academic partners. 80+ business and other collaborators.
Review of approach and wide consultation
carried out leading to move to “Hub” approach, with associated network and open calls for challenges. Networks , Marine, Bioenergy, Solar and Hydrogen & Fuel Cells already moved to the new model. With Wind and Storage moving to the new model in 2014/2015.
Supporting research in sustainable power and generation.
SUPERGEN Marine
2003: SUPERGEN Marine Phase 1
SUPERGEN Marine
2003: SUPERGEN Marine Phase 1 2007: SUPERGEN Marine Phase 2
SUPERGEN Marine
2003: SUPERGEN Marine Phase 1 2007: SUPERGEN Marine Phase 2 2011: SUPERGEN Marine Phase 3. Renewed under the new Hub Model.
SUPERGEN Marine
2003: SUPERGEN Marine Phase 1 2007: SUPERGEN Marine Phase 2 2011: SUPERGEN Marine Phase 3. Renewed under the new Hub Model.
SUPERGEN Marine Hub (2011): UK Centre for Marine Energy Research
SUPERGEN Marine Hub (2011): UK Centre for Marine Energy Research
SUPERGEN Marine Hub (2011): UK Centre for Marine Energy Research
£3.0M Investment over 5 years.
Aims:
• To carry out fundamental and applied research. • To build capacity in the UK Marine Energy research base.
• To provide a broad and inclusive network of marine energy
researchers.
SUPERGEN Marine Challenge I (2011): Accelerating the Deployment of Marine Energy
“those aspects of marine energy generation technologies, the environmental impacts of the technologies and the socioeconomic aspects of marine energy (including policy) that are holding back the deployment of marine energy”
2020 Deployment focused. Complementary to the work of the Marine Hub. 9 Projects funded. £8M worth of research investments made.
SUPERGEN Marine Challenge I (2011): Accelerating the Deployment of Marine Energy
Increasing the Life of Marine Turbines by Design and Innovation
TeraWatt: Large scale Interactive coupled 3D modelling for wave and tidal energy resource and environmental impact (Remit 1 MASTS Consortium Proposal)
Imperial College London Modelling Marine Renewable Energy Devices; Designing for Survivability
The Effects of Realistic Tidal Flows on the Performance and Structural Integrity of Tidal Stream Turbines
X-MED: EXtreme Loading of Marine Energy Devices due to Waves, Current, Flotsam and Mammal Impact
SUPERGEN Marine Challenge I (2011): Accelerating the Deployment of Marine Energy
Interactions of flow, tidal stream turbines and local sediment bed under combined waves and tidal conditions (INSTRON)
SMARTY - Supergen MARrine TechnologY challenge
Large scale interactive coupled modelling of environmental impacts of marine renewable energy farms
Optimal Design of Very Large Tidal Stream Farms: for Shallow Estuarine Applications
SUPERGEN Marine Challenge II (2012): 2050 Research Challenges for Marine energy
“Marine energy is moving slowly towards a deployment stage. However, most current R&D is focused on the near term deployment issues the technology faces. This call is intended to stimulate the novel research that is focussed on the far term research that could influence marine energy in 2050.”
Focused on long term deployment. – Issues centred on arrays and extreme environments.
Expanding the remit beyond existing Hub activities. Projects to be funded in Q3 2012/2013. £3M worth of funding available.
The All-Waters Combined Current and Wave Test Facility
£6.0M Investment toward the new £9.5M wave tank facility. Open to both Academic and Industrial Research. Suitable for experiments from 1:40 to 1:10 scale. Can simulate waves and currents in any relative direction. Capable of modelling wave and tidal conditions from anywhere in the UK or Europe.
In operation from May 2013
IDCORE: IDC in Offshore Renewable Energy
Centre for EngD doctoral training. £6.5M Co-funded by RCUK Energy and the ETI. Funding available for 10 students each year for 5 years. Students spend 75% time in Industry, 25% in academia. Multidisciplinary approach produces students with the broad expertise needed to tackle marine energy challenges.
Marine Energy Research Fellowships
Actively encouraging fellowship applications at Early Career and Established Career level. Research relating to the following areas:
Wave and/or tidal devices. Wave/Tidal arrays. Marine energy systems. Interaction of devices/arrays with the marine environment.
Ongoing Support
Strategy: • To focus research on the underpinning research problems
facing deployment. • To more closely link the academic research base and
industry. • Encourage responsive mode applications. • Better link technology and environment research.
Future activities: • No further targeted activities planned until 2014/15. • Ongoing support for responsive proposals and fellowships. • Increased opportunity for community engagement and
reflection in 2013/14.
Research Councils UK Energy Programme Marine Energy Portfolio
Dr Lewis Preece – 12th September 2012 For a Low Carbon Energy Future
18. Marts 2009 1 Udvikling og indpasning af bølgekraft i elnettet
Wave Power in DK
Niels Ejnar Helstrup R&D coordinator Energinet.dk
Energinet.dk Support to wave energy from Energinet.dk New wave power strategy
National transmission system operator (TSO) for electricity and natural gas Owned by the Danish state under the Ministry of Climate and Energy About 530 employees Head office in Jutland in the town of Erritsø near Fredericia Annual turnover - about DKK 9 billion (1.2 billion €) Responsible for integrating and supporting renewable energy Support the development of wave energy through “ForskEL” and ForskVE”
Energinet.dk in brief
About 6 % of ForskEL fundings (8 of 130 million per year average
Fordeling, ForskEL midler 2008-2010 Millioner kr. (sum ca 400 millioner)
Bio; 121
Vindenergi; 30Solceller; 21
Kraftvarme; 13
Bølgeenergi; 19
Energisystemer; 69
Brint og brændselsceller;
123
About 20 % of ForskVE fundings (5 million of 25 DDK per year, average)
Fordeling, ForskVE midler 2008-2010 Millioner kr. (sum ca 75 millioner)
Bio; 16
Solceller; 40
Bølgeenergi; 19
Supported concepts
Challenges Efficiency Costs of machines Maintenance Survivability
Strategy of Energinet.dk
Focus on total cost of energy analyses More corporation, and focus on “standard” components Concepts “optimized” on smaller scales, before mooving to next scale. Critical components developed/testet seperately to find the right solutions before full scale. New concepts supported, but only if funding are focused on the unique qualities of the concept New wave power strategy, rooted in the wave power partnership
Cost of Energy
Investments [kr/år]
O&M [kr/år]
ÅEP [MWh]
Maintenace
Power take off (PTO)
Design and produktion
Electrcal infrastructure
Installation and anchoring
Wave Climate
Performance
CoE [kr / kWh]
Investments + Maintenance
Production CoE =
18. Marts 2009
Udvikling og indpasning af bølgekraft i elnettet 8
COE
10
Case: The Wave Star machines
Test machine at Aalborg University • Deployment: 2004-2005 • Scale: 1/40 • Float diameter: 0.25 m
Test machine at Nissum Bredning • Deployment: 2006-2010 • Scale: 1/10 • Float diameter: 1.0 m
Test section of the 500 kW at Hanstholm • Deployment: 2009-> • Scale: 1/2 • Float diameter: 5.0 m
The Wave Star Roshage test unit is a section of the complete machine
11
Parameter Roshage test unit
Commercial Wave Star C5-600 kW
Number of floats 2 20 Float diameter Ø5 m Ø5 m Arm length 10 m 10 m Weight 1000 Tons 1600 Tons Nominal electrical power
110 kW 600 kW
Support verying performance as specified
Support depending on performance as specified
harvested energy per floater (kW)=3,75*B2,08
Forvente høstet energi per flyder
0
5
10
15
20
25
30
35
0 0,5 1 1,5 2 2,5 3
Signifikant bølgehøjde
KW
Forventet høstet gennemsnitseffekt (kW) efter matrix
Forventet høstet gennemsnitseffekt (kW) efter formel
Power measurements from the Roshage test unit
13
Notes: • Power is 10 minute average values of harvested power from one float (hydraulic power leaving one cylinder) • The same data are shown in the figures, only the x-axis is different • A typical wave period for the Roshage location is used for the simulated curve
0 0.5 1 1.5 2 2.5 30
5
10
15
20
25
30
Significant wave height (m)
Pow
er (k
W)
0 2 4 6 8 10 12 14 160
5
10
15
20
25
30
Wave power (kW/m)
Pow
er (k
W)
Measured September 2010 (Control generation 3)Measured June 2010 (Control generation 2)Measured May 2010 (Control generation 1)Simulation, Control generation 3ForskVE Limit Curve
15 Energy Supply Chain June 2009 15
Roshage Pier Hanstholm DK
The location of the Wave Star 500 kW test section
Hanstholm, the national test center for Wave
Common challenges like:
PTO systems Anchoring grid connections Component durability etc.
Corporation is needed to reach a break-though for wave energy
No strategy towards installed MW, but focus on MWh. Focus on development based in cost of energy analyses Motivate more corporation in the sector, and with other sectors Optimizing and evaluation of each scale before moving to next scale Minimize risks of failure in full scale
Conclusions
Thank you for your attention
Basque Country Ocean Energy R&D interest
Ocean Energy ERANET meeting
London, September 2012
2
Contents EVE: the Basque Energy Agency
Energy Strategy for the Basque Country 2020
Basque Country Ocean Energy R&D priorities
3
The Basque Energy Agency (EVE)
4
EVE (Ente Vasco de la Energía) is the energy agency of the Basque Government. Its mission is:
to propose energy strategies for the Basque Country, based on criteria of supply security, cost competitiveness, sustainability and technological development; and to take active part in developing these strategies and to contribute to delivering the related targets.
To deliver these objectives, EVE provides a service to the Basque Government Department of Industry, Innovation, Trade and Tourism in matters of energy and geological and mining resources and participates in projects, involving companies and public sector bodies. Furthermore, EVE raises public awareness of the criteria and values behind its strategies. EVE's capacity for action is rooted in the technical capacity, commitment and leadership of its people, and in efficient planning and management of its resources.
The Basque Energy Agency
5
Energy Strategy for the Basque Country 2020
6
Trends in the Setting
The Energy Strategy 2020 is structured, coordinated and complemented within the lines of action of the Basque Government’s different strategy plans …
Business Competitiveness PCE 2010-2013
Science, Technology and Innovation PCTI 2015
Basque Energy
Strategy
3E2020
Sectorial strategy plans
7
Energy strategy for 2020 is deployed through three basic strategic areas …
Directives. Strategic areas
Consumer sectors
Energy markets
and supply
Technological and industrial development
… involving 29 initiatives and 107 actions.
8
Key Actions in Energy Markets
9
Renewable power generation: In the short-to-medium term, the focus will have to be on mature technologies with local potential, such as wind and biomass, …
Guidelines. Energy Markets
… and in the medium to long term it will be necessary to develop new technological options, such as marine energy (wave energy and off-shore wind).
Wind: Sustainable plans and institutional
consensus
Biomass plants: Sector planning and backing for
initiatives
Small facilities: promoting progressive
integration Waves: accelerating technological
and commercial development
10
Renewable power generation: possible to achieve 1,350 MW installed capacity and 14% share of final consumption, …
Guidelines. Energy Markets
Hydro 13,0%
Wind 45,5%
Solar PV 3,9%
Biomass 32,2%
Ocean 4,3%
Geothermal 1,1%
Power generation mix 2020 (GWh)
0200400600800
1.0001.2001.4001.600
2010 2015 2020
Boost to power from renewables scenario (MW)
Geothermal
Ocean
Biomass
Solar PV
Wind
Hydro
SHARE OF RENEWABLES FINAL CONSUMPTION
Reference 2005 Actual 2010
Baseline 2020 2020 target
5.7% 8.0% 8.8% 14% 17% 17%
Scenario Target Altern. 1 Altern. 2
… rising to 17% in a scenario of favourable technological development in wind and other technologies.
ONSHORE WIND
BIOMASS
SOLAR
WAVES
OFFSHORE WIND
HYDROPOWER
GEOTHERMAL
+ 580 MW
+ 106 MW
+ 115 MW
+ 60 MW
+ 50MW
+ 10 MW
+ 5 MW
Increase in capacity + 926 MW
RENEWABLE GENERATION 2011-2020
Investment €1,710 m Share in power supply 16%
+ 1,985 MW €3,670 m
26%
+ 989 MW
+ 1.936 MW €3,030 m
26%
+ 1,530 MW
+ 175 MW + 765 MW
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Key Actions in Technological-industrial development
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Energy Cluster: great significance with 350 Companies, 2.6% of employment in Basque Country and 23% of turnover on GDP, …
Guidelines. Technological Development
… which spends around €320m on R&D, employing around 3,000 people.
€44,210 m
356
Basque energy companies
Total turnover
68,625
Total no. of employees
€15,470 m
24,378
… in the Basque Country
(35%)
(36%)
… in the Basque Country
€324m
7
Scientific and technological agents
Total R&D spending
2,948
Total no. of employees in R&D
€188m
1,905
… in the Basque Country
(58%)
(65%)
10
R&D Business Units
… in the Basque Country
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Guidelines. Technological Development
Technological Capacity: The sector is supported by a strong scientific/technological infrastructure led by the CIC energiGUNE…
Companies
2 Technological Corporations
Scientific agents
10 business R&D units
5 international competence centres
Large multi-technology research centre”
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“energiBasque" strategy: making use of the great energy challenges as a major opportunity for the Basque industrial sector.
Guidelines. Technological Development
“The Basque Country, a knowledge pole and a reference point for industrial development in the energy sector
worldwide”
Market size Growth
rate
Ease of entry
Business-generating companies
Techn. Position
Value chain
Vision
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New and emerging fields: Developing business activities in which the existing technology base has a strong starting point.
Guidelines. Technological Development
Consolidate a scientific and technological offer Value chain (equipment, components and services) specific to the marine energy sector Driver effect generated by the outstanding test-bed infrastructure
Waves
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Basque Country R&D Priorities Resource: characterisation, modelling and analysis tools, propagation and
forecasting.
Environmental and socio-economic impacts
Pre-normative research: development of protocols and guidelines for resource, performance and power quality assessment
Enabling technologies: materials, component reliability, PTO, grid connection and array mooring systems
Deployment and operation: farm planning, manufacturing & assembly methods, installation and O&M, measuring technologies
Research infrastructures: laboratory, testing and demonstration
Education and training: vocational skill development, higher education programmes
Basque Country Ocean Energy R&D interest
Thank you