Acronym: MERMAID
Period: January 2012 till 2016
Status: Completed
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| Institutes (29) | Top | - Technical University of Denmark (DTU), more, partner
- University of Bologna (UNIBO), more, partner
- University of Cantabria (UNICAN), more, partner
- Deltares, more, partner
- Schouten, Patricia
- Hulsman, Helena
- de Bel, Mark
- Schouten, Jan-Joost
- Hommes, Saskia
- de Kluijver, Anna
- El Serafy, Ghada
- Aguilar, Sandra Gaytan
- Troost, Tineke
- Raaijmakers, Tim
- Twigt, Daniel
- Verbruggen, Wilbert
- Joling, Almar
- Tralli, Aldo
- DHI Water × Environment × Health (DHI), more, partner
- Athens University of Economics and Business; Research Center (RC), more, partner
- Vlaams Instituut voor de Zee (VLIZ), more, partner
- Italian National Institute for Environmental Protection and Research (ISPRA), more, partner
- Technische Universität Carolo-Wilhelmina zu Braunschweig; Leichtweiss-Institut für Wasserbau (LWI), more, partner
- Institute of Marine Research (IMR), more, partner
- Roma Tre University, more, partner
- Polish Academy of Sciences; Institute of Hydroengineering (IBW PAN), more, partner
- Chalmers University of Technology, more, partner
- University of Dundee, more, partner
- National and Kapodistrian University of Athens (NKUA), more, partner
- Statoil Petroleum AS, more, partner
- The Cyprus Institute, more, partner
- Wageningen University and Research Centre; Stichting Dienst Landbouwkundig Onderzoek (DLO), more, partner
- Hortimare, more, partner
- Hvalpsund Net AS, more, partner
- Bolding & Burchard ApS (B&B), more, partner
- Istanbul Technical University (ITU), more, partner
- Musholm, more, partner
- Danish Aquaculture Society, more, partner
- Stichting Energieonderzoek Centrum Nederland (ECN), more, partner
- DONG Energy, more, partner
- Enel Ingegneria Innovazione SpA, more, partner
- Kefalonia Fisheries Industrial and Commercial Company (KF), more, partner
- NorWind, more, partner
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| Abstract | European oceans will be subject to massive development of marine infrastructure in the near future. The most
obvious is the energy facilities e.g. offshore wind farms, exploitation of wave energy, expansion of electricity
connections, and also further development and implementation of marine aquaculture. This will also lead to
an increased need for marine infrastructure to support installation and the on-going operation of the facilities.
However both economical costs and environmental impact have to be reduced in order to increase the feasibility
of the use of ocean space.
Marine structures for offshore wind farms and aquaculture have to be installed at various sites and on much
larger scale than earlier implementation of offshore structures in order to fulfil EU strategies (1) for reduction of
fossil-based energy and (2) to become a major player in sustainable aquaculture. However the feasibility is much
more sensitive to the costs of structures and the installation of the structures than for instance Oil & Gas facilities.
Novel innovative design concepts should address different physical conditions in order to make the best use
of the ocean space. Going from deep water (north of Spain) to shallow water with high morphological activity
(the Wadden sea) and further to inner waters like the inner Danish/Baltic areas and the Adriatic sea changes
the focus from a strong physical aspect to environmental impact. This will make it possible to develop, test and
integrate different technologies but also to address site specific challenges.
Both for offshore renewables and for aquaculture a substantial part of the costs is variable cost related to
operations and maintenance of the plants. It is obvious that optimization of the use of ocean space for different
purposes might benefit from shared resources such staff allocation, transportation of staff and material from and
to the platforms, use of forecasting systems, ships etc. |
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