Trouvez de l'information sur les Énergies Marines Renouvelables (EMR)

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Publications

De nombreuses publications faisant état des avancées en recherche et innovation dans le domaine des Énergies Marines Renouvelables (EMR) existent. Ces productions peuvent alimenter de nouveaux projets, conduire à de nouvelles thématiques de recherche et alimentent les contenus des formations de pointe délivrées par nos membres.

Trouvez de l'information sur les Énergies Marines Renouvelables (EMR)

Publications

2021-ZHANG C.-Individual/collective blade pitch control of floating wind turbine based on adaptive second order sliding mode-Projet WEAMEC « O2GRACE »

2021-TREYSSEDE F.-Elastic guided waves in helical multi-wire armors-Projet WEAMEC « OMCEND »

2021-THOREL L.-Cyclic loading of helical pile as anchor for floating wind turbine : centrifuge tests-Projet WEAMEC « REDENV-EOL »

2021-SOULIER A.-Low-Reynolds-number investigations on the ability of the strip of e-TellTale sensor to detect the flow features over wind turbine blade section: flow stall and reattachment dynamics-Projet WEAMEC « ASAPe »

2021-MELL L.-Finite element-fidelity parametrization of kriging metamodels for structural reliability assessment-Projet WEAMEC « MUSCAS »

2021-MELL L.-Auto-adaptive Multi-Fidelity Kriging approach to estimate structural reliability-Projet WEAMEC « MUSCAS »

2021-MAURICE A.-First approach to unsupervised classification of broadband fisheries acoustic data for ecosystem monitoring-Projet WEAMEC « EchoSonde »

2021-MARQUEZ L.-Ship Collision Events Against Reinforced Concrete Offshore Structures-Projet WEAMEC « ColFOWT »

2021-MAKSASSI Z.-Thermal characterization of biofouling around a dynamic submarine electrical cable-Projets WEAMEC « BIODYTHERM & Biodytherm8 »

2021-LEROY V.-Experimental investigation on the hydroelastic response of a spar-supported Floating Offshore Wind Turbine-Projet WEAMEC « HeLoFOW »

2021-LEROY V.- A weak-scatterer potential flow theory-based model for the hydroelastic analysis of offshore wind turbine substructures-Projet WEAMEC « HeLoFOW »

2021-LADEIRA I.-Assessment of the energy balance gap for ship-FOWT collision simulations with LS-DYNA/MCOL-Projet WEAMEC « ColFOWT »

2021-DEZULIER Q.-On the study of coupled creep test of composite materials used in a marine environment-Projet WEAMEC « CEAUCOMP »

2021-DEZULIER Q.-Etude du couplage hygromécanique de matériaux composites utilisés en milieu marin-Projet WEAMEC « CEAUCOMP »

2021-DESERT T.-Quantification and Correction of Wave-Induced Turbulence Intensity Bias for a Floating LIDAR System-Projet WEAMEC « MATILDA »

2021-DESERT T.-Error quantification as a function of metocean conditions and correction of wave induced turbulence intensity bias assessed with a Floating LiDAR System-Projet WEAMEC « MATILDA »

2021-CONAN B. – Scanning LiDAR field observation of near-offshore wind resource and extremes in the Northeast Atlantic coastal region of France. – Projet WEAMEC « WAKEFUL »

2021-CONAN B. – Offshore wind resource – Projet WEAMEC « WAKEFUL »

2021-BONNEFOY F.-Software in the Loop testing of FOWT: assessment of performance and elements of design regarding SOFTWIND experimental set up-Projet WEAMEC « SOFTWIND »

2021-BONNARD C.-H.-Increasing the energy production of a MRE farm considering thermal and techno-economic aspects-Projet WEAMEC « CELT4Wind »

2021-BLAVETTE A.-Upgrading wave energy test sites by including overplanting: a techno-economic analysis-Projet WEAMEC « CELT4Wind »

2021-BABARIT A.-Experimental validation of the energy ship concept for far-offshore wind energy conversion-Projet WEAMEC « WEREVER DEMO »

2021-AUBRUN S.-MeAsurement of the Turbulence Intensity with a floating LiDAr System-Projet WEAMEC « MATILDA »

2021- HAN S.Y – Hydrodynamic analysis and numerical modelling of heave-plates dedicated to the design of floating WT – Projet WEAMEC « HP_Flow »

2021- GILLOTEAUX J-C – From coupled designs tools to high fidelity simulations for floating offshore wind turbines – Projet WEAMEC « HP_Flow »

2021 – Wind Tunnel Study of a « Floating » Wind Turbine’s Wake in an Atmospheric Boundary Layer with Imposed Characteristic Surge Motion – Projet WEAMEC « FLOATEOLE »

2021 – PAYNE.G – Impact of Wave Resource Description on WEC Energy Production Estimates – Projet WEAMEC « RC-PLus »

2021 – MEDINA L. – Satellite data for the offshore renewable energy sector: Synergies and innovation opportunities – Projet WEAMEC « RC-Plus »

2021 – Experimental study of marine growth effect on the hydrodynamical behaviour of a submarine cable

2021 – Étude en soufflerie atmosphérique du sillage d’une éolienne flottante – Projet WEAMEC « FLOATEOLE »

2021 – Effect of roughness of mussels on cylinder forces from a realistic shape modelling

2021 – Dimensionnement sur cycle des génératrices synchrones à aimants et attaque directe pour l’éolien – Projet WEAMEC OCEOS

2021 – Co-Design Optimization of Direct Drive PMSGs for Offshore Wind Turbines Based on Wind Speed Profile – Projet WEAMEC « OCEOS »

2020-ZHOU C.-Two-dimensional elastic Bloch waves in helical periodic structures-Projet WEAMEC « OMCEND »

2020-THOREL L.-Pile test database on centrifuged models: tension loading for floating wind turbine anchor-Projet WEAMEC « REDENV-EOL »

2020-THOREL L.-Base de données d’essais de pieux réalisés sur modèles réduits centrifugés : chargement en traction pour ancrage d’éolienne flottante-Projet WEAMEC « REDENV-EOL »

2020-SOULIER A.-Ability of the e-TellTale sensor to detect flow features over wind turbine blades: flow stall/reattachment dynamics-Projet WEAMEC « ASAPe »

2020-SCHLIFFKE B.-Wind Tunnel Study of a « Floating » Wind Turbine’s Wake in an Atmospheric Boundary Layer with Imposed Characteristic Surge Motion-Projet WEAMEC « FLOATEOLE »

2020-SCHLIFFKE B.-Wind Tunnel Study of a « Floating » Wind Turbine’s Wake in an Atmospheric Boundary Layer with Imposed Characteristic Surge Motion-Projet WEAMEC « FLOATEOLE »

2020-SCHLIFFKE B.-Wind Tunnel Study of a « Floating » Wind Turbine’s Wake in an Atmospheric Boundary Layer with Imposed Characteristic Surge Motion-Projet WEAMEC « FLOATEOLE »

2020-NEUNABER I.-First characterization of a new perturbation system for gust generation: the chopper-Projet WEAMEC « ASAPe »

2020-NEUNABER I.-Aerodynamic behavior of an airfoil under extreme wind conditions-Projet WEAMEC « ASAPe »

2020-METZGER E.-Methane, pockmarks and Haploops: a biogeochemical connection-Projet WEAMEC « HOOPLA »

2020-MELL L.-Multifidelity adaptive kriging metamodel based on discretization error bounds-Projet WEAMEC « MUSCAS »

2020-MELL L.-Computation of discretization errors bounds on the fatigue damage of shear plates-Projet WEAMEC « MUSCAS »

2020-MAATOUK S.-Développement d’un batteur pour installer des monopieux d’éoliennes en mer en centrifugeuse-Projet WEAMEC « REDENV-EOL »

2020-MAATOUK S.-Development of a hammer to drive monopiles wind turbines in centrifuge-Projet WEAMEC « REDENV-EOL »

2020-LOPES S.P.-A new technique for increasing the sensitivity of marine DC-electrical resistivity acquisitions-Projet WEAMEC « PROSE »

2020-LEROY V.-Nonlinear hydroelastic responses of monopile and spar wind turbines in regular waves-Projet WEAMEC « HeLoFOW »

2020-LEROY V.-A new approach for the prediction of the non-linear hydro-elastic behaviour of large floating wind turbines-Projet WEAMEC « HeLoFOW »

2020-LEROY V.- Nonlinear hydroelastic responses of monopile and spar wind turbines in regular waves-Projet WEAMEC « HeLoFOW »

2020-LE SOURNE H.-The super element method for ship collision and grounding fast analysis-Projet WEAMEC « ColFOWT »

2020-GILLOTEAUX J.-C.-Effects of platform motions on FOWT rotor performances-Projet WEAMEC « SOFTWIND »& »FLOATEOLE

2020-EL HAJ A-K.-Improved active learning probabilistic approach for the computation of failure probability-Projet WEAMEC « ROS 3D »

2020-EL HAJ A-K.-Efficient estimation of the failure probability of a monopile foundation using a Kriging-based approach with multi-point enrichment-Projet WEAMEC « ROS 3D »

2020-ECHEVERRY S.-Numerical crashworthiness analysis of a spar floating offshore wind turbine impacted by a ship. Developments in the Collision and Grounding of Ships and Offshore Structures-Projet WEAMEC « ColFOWT »

2020-DEZULIER Q.-Study of the hygro-mechanical coupling in composite materials-Projet WEAMEC « CEAUCOMP »

2020-DANG L.-Design optimization of a direct-drive PMSG considering the torque-speed profile-Application for Offshore wind energy-Projet WEAMEC « OCEOS »

2020-DABBABI A.-Offshore wind farm layout optimization considering wake effects-Projet WEAMEC « OWARD »

2020-CLEMENT A.-Numerical stochastic study of damaged composite materials in humid environment-Projet WEAMEC « FIRMAIN »

2020-CHAMPILOU J-B.-Space-time evolution of le Croisic Haploops settlement (Bay of Biscay)-Projet WEAMEC « HOOPLA »

2020-BONNARD C.-H.-Near-optimal use of a MRE export cable considering thermal and techno-economic aspects-Projet WEAMEC « ORIGAMI »

2020-BABARIT A.-Validation expérimentale du principe du voilier-hydrolienne pour la récupération de l’énergie du vent en haute mer-Projet WEAMEC « WEREVER DEMO »

2020-ALKHOURY P.-Natural frequencies of a monopile supported offshore wind turbine taking into account soil-foundation-structure interaction and incorporating soil spatial variability-Projet WEAMEC « DYNA »

2020-ALKHOURY P.-Natural frequencies estimation of a monopile supported DTU-10MW offshore wind turbine-Projet WEAMEC « DYNA »

2020-ALKHOURY P.-A full three-dimensional model for the estimation of the natural frequencies of an offshore wind turbine in sand-Projet WEAMEC « DYNA »

2020 – Wind Tunnel Study of a « Floating » Wind Turbine’s Wake in an Atmospheric Boundary Layer with Imposed Characteristic Surge Motion – Projet WEAMEC « FLOATEOLE »

2020 – PAYNE.G – Influence de la caractérisation de la ressource en vague sur l’estimation de la production énergétique des systèmes houlomoteurs – Projet WEAMEC « RC-PLus »

2019-UGUEN A.-Study of the hygro-elastic behavior of composite materials in presence of cracks: application to the durability of renewable marine energy structures -Projet WEAMEC « FIRMAIN »

2019-TSUHA C.-Evaluation of the breakout factor for helical anchors in sand by centrifuge testing Geotechnical Engineering in the XXI Century: Lessons learned and future challenges-Projet WEAMEC « REDENV-EOL »

2019-TREYSSEDE F.-Propagation des ondes mécaniques dans les câbles ombilicaux destinés aux EMR-Projet WEAMEC « OMCEND »

2019-TREYSSEDE F.-Free and forced response of three-dimensional waveguides with rotationally symmetric cross-sections-Projet WEAMEC « OMCEND »

2019-THOREL L.-Stress variation during installation of mono-helix helical pile-Projet WEAMEC « REDENV-EOL »

2019-THOREL L.-Reducing the environmental geometrical impact of floating windturbines by using pile foundations : centrifuge modelling of the behaviour of helical anchors-Projet WEAMEC « REDENV-EOL »

2019-SOULIER A.-Ability eTellTale to detect flow features.-Projet WEAMEC « ASAPe »

2019-SOUBRA A-H.-Numerical modelling of offshore anchors for floating structures-Projet WEAMEC « ROS 3D »

2019-SEO J.-Integrated FEM and CFD Simulation for Offshore Wind Turbine Structural Response

2019-SCHLIFFKE B.-Working at the Wind Tunnel Facility at Centrale Nantes-Projet WEAMEC « FLOATEOLE »