Nanoengineered graphene-reinforced coating for leading edge protection of wind turbine blades

Nicolai Frost-Jensen Johansen; Leon Mishnaevsky Jr.; Arash Dashtkar; Neil A. Williams; Søren Fæster; Alessio Silvello; Irene Garcia Cano; Homayoun Hadavinia

doi:10.3390/coatings11091104

Nanoengineered graphene-reinforced coating for leading edge protection of wind turbine blades

Nicolai Frost-Jensen Johansen
, Leon Mishnaevsky Jr.^*
, Arash Dashtkar
, Neil A. Williams
, Søren Fæster
, Alessio Silvello
, Irene Garcia Cano
, Homayoun Hadavinia

^*Corresponding author for this work

Research output: Contribution to journal › Journal article › Research › peer-review

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Abstract

Possibilities of the development of new anti-erosion coatings for wind turbine blade surface protection on the basis of nanoengineered polymers are explored. Coatings with graphene and hybrid nanoreinforcements are tested for their anti-erosion performance, using the single point impact fatigue testing (SPIFT) methodology. It is demonstrated that graphene and hybrid (gra-phene/silica) reinforced polymer coatings can provide better erosion protection with lifetimes up to 13 times longer than non-reinforced polyurethanes. Thermal effects and energy dissipation during the repeated soft impacts on the blade surface are discussed.

Original language	English
Article number	1104
Journal	Coatings
Volume	11
Issue number	9
Number of pages	18
ISSN	2079-6412
DOIs	https://doi.org/10.3390/coatings11091104
Publication status	Published - 2021

Keywords

Coatings
Leading edge erosion
Wind energy
Wind turbine
Wind turbine blade

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title = "Nanoengineered graphene-reinforced coating for leading edge protection of wind turbine blades",

abstract = "Possibilities of the development of new anti-erosion coatings for wind turbine blade surface protection on the basis of nanoengineered polymers are explored. Coatings with graphene and hybrid nanoreinforcements are tested for their anti-erosion performance, using the single point impact fatigue testing (SPIFT) methodology. It is demonstrated that graphene and hybrid (gra-phene/silica) reinforced polymer coatings can provide better erosion protection with lifetimes up to 13 times longer than non-reinforced polyurethanes. Thermal effects and energy dissipation during the repeated soft impacts on the blade surface are discussed.",

keywords = "Coatings, Leading edge erosion, Wind energy, Wind turbine, Wind turbine blade",

author = "Johansen, \{Nicolai Frost-Jensen\} and \{Mishnaevsky Jr.\}, Leon and Arash Dashtkar and Williams, \{Neil A.\} and S{\o}ren F{\ae}ster and Alessio Silvello and Cano, \{Irene Garcia\} and Homayoun Hadavinia",

year = "2021",

doi = "10.3390/coatings11091104",

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issn = "2079-6412",

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AU - Johansen, Nicolai Frost-Jensen

AU - Mishnaevsky Jr., Leon

AU - Dashtkar, Arash

AU - Williams, Neil A.

AU - Fæster, Søren

AU - Silvello, Alessio

AU - Cano, Irene Garcia

AU - Hadavinia, Homayoun

PY - 2021

Y1 - 2021

N2 - Possibilities of the development of new anti-erosion coatings for wind turbine blade surface protection on the basis of nanoengineered polymers are explored. Coatings with graphene and hybrid nanoreinforcements are tested for their anti-erosion performance, using the single point impact fatigue testing (SPIFT) methodology. It is demonstrated that graphene and hybrid (gra-phene/silica) reinforced polymer coatings can provide better erosion protection with lifetimes up to 13 times longer than non-reinforced polyurethanes. Thermal effects and energy dissipation during the repeated soft impacts on the blade surface are discussed.

AB - Possibilities of the development of new anti-erosion coatings for wind turbine blade surface protection on the basis of nanoengineered polymers are explored. Coatings with graphene and hybrid nanoreinforcements are tested for their anti-erosion performance, using the single point impact fatigue testing (SPIFT) methodology. It is demonstrated that graphene and hybrid (gra-phene/silica) reinforced polymer coatings can provide better erosion protection with lifetimes up to 13 times longer than non-reinforced polyurethanes. Thermal effects and energy dissipation during the repeated soft impacts on the blade surface are discussed.

KW - Coatings

KW - Leading edge erosion

KW - Wind energy

KW - Wind turbine

KW - Wind turbine blade

U2 - 10.3390/coatings11091104

DO - 10.3390/coatings11091104

M3 - Journal article

SN - 2079-6412

VL - 11

JO - Coatings

JF - Coatings

IS - 9

M1 - 1104

ER -

Nanoengineered graphene-reinforced coating for leading edge protection of wind turbine blades

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