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Funded Projects › H2020

NEMMO · Next Evolution in Materials and Models for Ocean energy

H2020Status: CLOSED1 April 201930 September 2023EU funding €4,981,008Call H2020-LC-SC3-2018-2019-2020

NEMMO will design, model and test downscaled prototypes of larger, lighter and more durable composite blades for >2MW floating tidal turbines to reduce LCoE of tidal energy to €0.15/kWh, meeting 2025 SET-Plan targets and making it competitive to competing fossil fuel sources. Novel blade designs with enhanced hydrodynamic performance due to the implementation of the different solutions, active flow control, materials and surfaces will be tested. Also, new nano-enhanced composites with properties that increase fatigue-, impact-, cavitation- and bio-fouling resistance of novel blade designs to prevent failures will be made. The project will then model, design and test the lifespan and resistance of the new composites for tidal turbine blades. This will involve: • accurate modelling of harsh hydrodynamic and environmental stresses for the development of testing and validation procedures • a new test rig for the evaluation of fatigue and cavitation on test probes and downscaled prototypes • a testing procedure including bio-fouling and marine environments evaluation in four different real scenarios • development of numerical models for the prediction of lifespan and mechanical properties as function of the materials properties, hydrodynamic loads, time and water composition • Novel tidal generator blades designs integrating active control flow, advanced surfaces and new nano-enhanced composites. The collective result of these innovations is 70% reduction in LCoE for tidal energy due to; (i) 50% CapEx reduction (lower material consumption and 25% lower cost of new composites), (ii) 2% lower FCR (increased understanding of failure and fatigue mechanisms and more durable composites with 66% higher lifespan), (iii) 40% reduction in O&M (reduced cavitation wear, bio-fouling and aging) and, (iv) 20% increase in AEP (enhanced hydrodynamic performance and higher inlet flow speeds for tidal turbine).

Consortium · 14 organisations

coordinator

FUNDACION TECNALIA RESEARCH & INNOVATION

ES · €591,920

participant

S.P. NANO LTD

IL · €208,125

participant

DUBLIN CITY UNIVERSITY

IE · €525,515

participant

INDUSTRIAS NAVARRAS DEL PLASTICO REFORZADO SL

ES · €784,993

thirdParty

MAGALLANES RENOVABLES SL

ES

participant

RISE RESEARCH INSTITUTES OF SWEDEN AB

SE · €85,000

participant

SAGRES SL

ES · €278,565

participant

FUNDACION TECNOLOGICA ADVANTX

ES · €346,265

participant

INSTITUTO TECNOLOGICO DE ARAGON

ES · €460,000

participant

BLAEST A/S

DK · €185,964

participant

SSPA SWEDEN AB

SE · €430,514

participant

ASSOCIATION EUROPEENNE DE L'ENERGIE DE L'OCEAN

BE · €197,513

participant

TECHNION - ISRAEL INSTITUTE OF TECHNOLOGY

IL · €450,000

participant

CENTRE TECHNOLOGIQUE NOUVELLE-AQUITAINE COMPOSITES & MATERIAUX AVANCES

FR · €436,635

Research fields

View the official record on CORDIS →

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Source: CORDIS, Publications Office of the European Union. Global Research Partnerships surfaces open EU research data to help you find collaborators; we are not affiliated with the European Union.