OpenHydro turbine deployment in Brittany, France

International projects

ITEG Project Logo - RGB - Resized

An €11 million Interreg North-West Europe (NWE) project has been launched in Orkney to develop an all-in-one solution for the generation of clean predictable energy, grid management, and the production of hydrogen from excess capacity.

Led by the European Marine Energy Centre (EMEC) in Orkney, the €11m Integrating Tidal Energy into the European Grid (ITEG) project brings together partners from across the UK, France, Belgium and the Netherlands to address energy-related carbon emissions in North-West Europe and tackle grid export limitations faced in remote areas such as Orkney.

The project consortium includes EMEC, Scotrenewables Tidal Power, AREVA H2Gen, the Energy Systems Catapult, Energy Valley/New Energy Coalition, University of Caen Normandy, University of Le Havre Normandy, Ghent University and the Normandy Development Agency.

Funded by the Interreg NWE programme, part of the ERDF (European Regional Development Fund), the project will deliver an onshore energy management system at EMEC’s Fall of Warness tidal test site, off the northern Orkney island of Eday. This will support the production of hydrogen using an AREVA H2Gen electrolyser, the first to be deployed in the UK, which will be powered by Scotrenewables’ next generation 2 MW floating tidal energy converter, the SR2-2000.

The cost of pre-commercial demonstration for ocean energy is high and investors are reluctant to invest until the technology has been proven in the sea at scale. ITEG sets out to drive down these costs through the development of an integrated hydrogen production solution.


FORESEA (Funding Ocean Renewable Energy through Strategic European Action) is an €11m Interreg North West Europe project. Its helps bring offshore renewable energy technologies to the market by providing free access to North-West Europe’s world-leading network of test centres.

Since its launch, FORESEA has increased real-sea testing activity in the ocean energy sector. Ten projects have hit the water at European test centres with FORESEA support, with more to come in the next 18 months.

Support is awarded through a series competitive calls. run by the project consortium.

Where can I test through the FORESEA programme?
The programme covers the following test centres:

European Marine Energy Centre (EMEC): Orkney Islands, UK
SmartBay: Galway, Ireland
SEM-REV: Nantes, France
Dutch Marine Energy Centre: Alkmaar, Netherlands

The test centres are supported by the European industry body for ocean energy, Ocean Energy Europe, based in Brussels.



MET-Certified aims to increase the adoption of insurable and therefore bankable marine energy projects in the 2 Seas region through the development of internationally recognised standards and certification schemes in the sector.

RiaSoR will establish industry best practices in reliability testing for wave and tidal devices through improved load measurements and verification, standardising design guidelines for marine energy systems, and increasing safety in marine energy operations. The Variation Mode and Effect Analysis (VMEA) methodology used in other more mature sectors such as the automotive and aerospace industry will be adapted in this project for the ocean energy sector.

MET-CERTIFIED brings together partners from 4 European countries to advance the marine energy sector in the 2SEAS region: Dutch Marine Energy Center (NL) as project coordinator, the European Marine Energy Center (UK), Lloyd’s Register EMEA (UK), IFREMER (FR), Tocardo Tidal Power (NL), Perpetuus Tidal Energy Centre (UK), NEC (NL), DNV GL (UK), Regional Development Agency West Flanders (BE), and Ghent University (BE).At present no certification scheme for marine energy have been developed and implemented by all main stakeholders in a consistent way. The expectation is that it will come into existence over the next 3 years under the umbrella of the International Electrotechnical Commission (IEC). Therefore, the timing of MET-CERTIFIED is very favorable.

MET-CERTIFIED will help to accelerate the development of certification for the sector, and thus will increase and accelerate the adoption of insurable and bankable tidal power projects.

The main outputs defined in the project are:
1) Sustainable and predictable electricity generated from tidal flows in the 2SEAS region, both at floating sites (open water) as well as from dam-integrated systems (inshore).
2) Mature and verified standards and certification scheme in support of IEC and IECRE developments for marine energy converters.
3) Design, Building and installing a state of the art floating platform at a commercial tidal site with an operational tidal turbine that will be used as a reference case for the first internationally recognised certification of a tidal power technology.
4) Verification and certification of other marine energy projects.
5) Dissemination of results, recommendations to the European Commission, reinforcement of cross collaboration between networks across the 2SEAS region, etc.

MET-CERTIFIED is cofinanced by the European Fund for Regional Development (ERFD) under grant agreement No 2S01-020. Also the Ministry of Economic Affairs in the Netherlands, Province of South-Holland and North-Holland and the Belgian Province of West Flanders are offering financial support.

MET-CERTIFIED targets stakeholders around certification, from banks and insurers to consenting authorities, end-users, test facilities and classification bureaus.

These are the general objectives of MET-CERTIFIED:
• To accelerate and contribute to the development of mature and verified standards and certification.
• Share data on experience on open water test sites in order to stimulate access to and the development of other marine innovation locations.
• Dissemination and recommendation to wide network of stakeholders and EU.

EMEC role:

EMEC will lead on the work package ‘Type Certification of existing tidal power technologies’ which looks are developing a suite of internationally recognised standards by applying them in a systematic way to a number of existing pilots. Furthermore, EMEC will focus on the implementation of the developing IEC standards and IECRE certification schemes, as well as, organising the UK workshop.

Funder: Interreg 2 Seas

Timescale: September 2016 – December 2019

Reliability in a Sea of Risk (RiaSoR)


The Reliability in a Sea of Risk project (RiaSoR) aims to address the strategic need for the ocean energy industry to focus on the key engineering challenges that underpin the reliability and survivability of emerging wave and tidal energy technology.

RiaSoR will establish industry best practices in reliability testing for wave and tidal devices through improved load measurements and verification, standardising design guidelines for marine energy systems, and increasing safety in marine energy operations. The Variation Mode and Effect Analysis (VMEA) methodology used in other more mature sectors such as the automotive and aerospace industry will be adapted in this project for the ocean energy sector.

The project brings together three leading European research and testing sites from the north of Scotland, England and Sweden in order to develop industry approved reliability testing practices. These practices will be applied by the research and testing sites, ensuring consistency and robustness of testing to demonstrate reliability across wave and tidal technologies. The overall technical approach will be driven by SP Research, who bring their experience in reliability testing from the automotive industry. They will focus on developing framework methodologies that will be deployed at the onshore Offshore Renewable Energy Catapult test site in Blyth (England) and the European Marine Energy Centre’s offshore test sites in Orkney (Scotland).

EMEC role: The main areas of input from EMEC is WP1 (project management), WP5 (Moorings and Foundations methodology/analysis) and WP7 (guidelines and dissemination).

Funder: OCEANERA-NET First Joint Call 2014

Timescale: 2016


Aim: MARINET is a new European Community (EC) funded initiative which aims to accelerate the development of marine renewable energy by bringing together world-class testing facilities at all scales to offer periods of free access, coordinated research to enhance testing capabilities, common standards, industry networking and training courses in testing techniques.

EMEC role: EMEC has involvement in a range of MaRINET activities including WP2 (test site standardisation), WP3 (facility access) and WP4 (research).

Funder: FP7

Timescale: 2011 to 2014


Work Package 4: Research to innovate and improve infrastructures, technologies and techniques.
D4.7 Best practice report on environmental monitoring and new study techniques. 2014.


Aim: This project has delivered a suite of protocols for the equitable evaluation of marine energy converters (based on either tidal or wave energy). Our main contribution was in the resource and environmental assessment work packages.

EMEC role: The main areas of input from EMEC was in WP2 (physical environment specification) and WP6 (environmental impact assessment).

Funder: FP7

Timescale: 2009 to 2011

Outputs: see Equimar



Aim: The SOWFIA project aims to achieve the sharing and consolidation of pan-European experience of consenting processes and environmental and socio-economic impact assessment (IA) best practices for offshore wave energy conversion developments. Studies of wave farm demonstration projects in each of the collaborating EU nations are contributing to the findings. The study sites comprise a wide range of device technologies, environmental settings and stakeholder interests.

EMEC role: EMEC provides a technical advisory capacity for the project and is also supporting a number of deliverables.

Funder: Intelligent Energy Europe

Timescale: 2011 to 2013

Outputs: see SOWFIA







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Atlantis Resources Corporation



Naval Group

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Open Hydro


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Voith Hydro


Wello Oy

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