INNOVATIVE FLOATING OFFSHORE WIND ENERGY

Proving cost effective technology for floating substructures for 10MW wind turbines at water depths greater than 50 m

  • Challenge
    Challenge

    Challenge

    There is a need for new innovative substructure concepts, including floating platforms, to reduce production, installation and O&M costs for water depths of more than 50m.

    OBJECTIVES:

    • Optimize and qualify to a Technology Readiness Level – TRL of 5, two innovative substructure designs for 10MW turbines

    • Develop a streamlined and KPI (key performance indicator) based methodology for the evaluation and qualification process of floating substructures

    FOCUS:

    – Floating wind turbines installed in water depths from 50m to 200m

    – Offshore wind farms of large wind turbines (10MW) – identified to be the most effective way of reducing cost of energy in short term

     

     

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  • Goals
    Goals

    Goals

    1. Substructure design for very large floating offshore wind turbines (10MW)
    2. Methodologies for design evaluation, including LCOE (Levelized Cost of Energy)

    To realize these goals, we need:

    1. Multi-fidelity numerical tools in the context of qualifying and optimizing large substructures
    2. Experimental techniques specific to floating offshore wind turbines
    3. Concept industrialization, as an early focus in the design
    4. Uncertainty and risk assessment related to unprecedented large wind turbine substructures

    Outcome:

    –   Mature floating substructure design synchronized with the expected time-to-market of 10MW offshore wind turbine technology
    –   Increased scientific and industrial knowledge on numerical and experimental design methodologies and procedures, also enabling more streamlined, KPI based developments
    –   Ultimately, a considerable LCOE reduction for large floating offshore wind farms

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  • Approach

    Approach

     

    Input:

     

    approach2

    Outcome:

     

    approach-output

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  • Concepts

    Concepts

    concepts

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The Second Annual meeting for the LIFES50+ project took place in Bilbao, Spain, on the 24-–25th of May 2016.  It was hosted by TECNALIA, with representatives from all project beneficiaries and  members from the External Advisory Group. The programme for Day 1 started with the second annual meeting containing WP (Work Package) presentation and their… Read more »

Politecnico di Milano: Wind tunnel tests

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Partners

Germanischer Lloyd Industrial Services GMBH (Germany)
Danmarks Tekniske Universitet (Denmark)
Norsk Marinteknisk Forskningsinstitutt AS (Norway)
Ramboll Management Consulting GMBH (Germany)
Ideol (France)
Catalonia Institute for Energy Research (Spain)
Fundacion Tecnalia Research & Innovation (Spain)
Offshore Renewable Energy Catapult (United Kingdom)
Politecnico di Milano (Italy)
Dr.techn.Olav Olsen AS (Norway)
University of Stuttgart (Germany)
Iberdrola I&C (Spain)

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Ingvil Snøfugl

Ingvil Snøfugl

Communication Manager


Mobile: +47 957 70 133

Ingvil.Snofugl@marintek.sintef.no

Jan_Arthur_Norbeck

Jan Arthur Norbeck

Project Manager


Mobile: +47 951 10 424

JanArthur.Norbeck@marintek.sintef.no

Petter_Andreas_Berthelsen

Petter Andreas Berthelsen

Project Coordinator


Mobile: +47 952 22 139

PetterAndreas.Berthelsen@marintek.sintef.no