Analysing fibre composite designs for high-solidity ducted tidal turbine blades

Mitchell Borg; Qing Xiao; Atilla Incecik; Steven Allsop; Christophe Peyrard

Analysing fibre composite designs for high-solidity ducted tidal turbine blades

Mitchell Borg, Qing Xiao, Atilla Incecik, Steven Allsop, Christophe Peyrard

Research output: Contribution to conference › Paper › peer-review

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Abstract

This study elaborates a one-way fluid-structure interaction numerical model utilised in investigating the structural mechanics concerning the rotor blades comprising a ducted high-solidity tidal turbine. Coupling hydrodynamic outcomes as structural inputs in effort of acknowledging the most applicable setup, distinct designs are investigated, solid blades and cored blades, implementing fibre-reinforced composite materials, analysed within criteria related to blade axial deformation, induced radial strains, and rotor specific mass.

Original language	English
Publication status	Published - 20 Jun 2019
Event	IEEE Oceans 2019 - Marseille, France Duration: 17 Jun 2019 → 20 Jun 2019 https://www.oceans19mtsieeemarseille.org/

Conference

Conference	IEEE Oceans 2019
Country	France
City	Marseille
Period	17/06/19 → 20/06/19
Internet address	https://www.oceans19mtsieeemarseille.org/

Keywords

high solidity blades
fluid-structure interaction
composites
ducted turbine
tidal turbine

Access to Document

Borg-etal-IEEE-Oceans-2019-Analysing-fibre-composite-designs-for-high-solidity-ducted-tidalAccepted author manuscript, 2.26 MB

https://ieeexplore.ieee.org/document/8867566/

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Cite this

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title = "Analysing fibre composite designs for high-solidity ducted tidal turbine blades",

abstract = "This study elaborates a one-way fluid-structure interaction numerical model utilised in investigating the structural mechanics concerning the rotor blades comprising a ducted high-solidity tidal turbine. Coupling hydrodynamic outcomes as structural inputs in effort of acknowledging the most applicable setup, distinct designs are investigated, solid blades and cored blades, implementing fibre-reinforced composite materials, analysed within criteria related to blade axial deformation, induced radial strains, and rotor specific mass.",

keywords = "high solidity blades, fluid-structure interaction, composites, ducted turbine, tidal turbine",

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AU - Borg, Mitchell

AU - Xiao, Qing

AU - Incecik, Atilla

AU - Allsop, Steven

AU - Peyrard, Christophe

PY - 2019/6/20

Y1 - 2019/6/20

N2 - This study elaborates a one-way fluid-structure interaction numerical model utilised in investigating the structural mechanics concerning the rotor blades comprising a ducted high-solidity tidal turbine. Coupling hydrodynamic outcomes as structural inputs in effort of acknowledging the most applicable setup, distinct designs are investigated, solid blades and cored blades, implementing fibre-reinforced composite materials, analysed within criteria related to blade axial deformation, induced radial strains, and rotor specific mass.

AB - This study elaborates a one-way fluid-structure interaction numerical model utilised in investigating the structural mechanics concerning the rotor blades comprising a ducted high-solidity tidal turbine. Coupling hydrodynamic outcomes as structural inputs in effort of acknowledging the most applicable setup, distinct designs are investigated, solid blades and cored blades, implementing fibre-reinforced composite materials, analysed within criteria related to blade axial deformation, induced radial strains, and rotor specific mass.

KW - high solidity blades

KW - fluid-structure interaction

KW - composites

KW - ducted turbine

KW - tidal turbine

UR - https://ieeexplore.ieee.org/document/8867566/

M3 - Paper

T2 - IEEE Oceans 2019

Y2 - 17 June 2019 through 20 June 2019

ER -