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Validation of the Predictive Capabilities of Computational Aerodynamics Codes to Assess Eroded Blade Performance: First Aerodynamic Benchmark: International Energy Agency (IEA) Wind Task 46, Work-package 3: Wind turbine operation with erosion

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@misc{a76d129cb9774d81902d8b5f85b43acf,
title = "Validation of the Predictive Capabilities of Computational Aerodynamics Codes to Assess Eroded Blade Performance: First Aerodynamic Benchmark: International Energy Agency (IEA) Wind Task 46, Work-package 3: Wind turbine operation with erosion",
abstract = "The report presents an initial assessment of the predictive capabilities of computational aerodynamics codes used in industry and academia for predicting the aerodynamic performance impairment of wind turbine blades caused by erosion. Both high-fidelity codes, i.e. Navier-Stokes computational fluid dynamics codes, and lower-fidelity methods, i.e. potential flow codes coupled to integral boundary layer equation and transition model and augmented with empirical correlations, are considered in the exercise. The test cases used for the study consist of wind tunnel aerodynamic experiments carried out in state-of-the-art European and American wind tunnels. The results of this investigation are relevant to predicting the turbine power and energy yield loss caused by erosion.",
keywords = "Aerodynamics, Winf Energy, Wind tunnel experiments, blade erosion, Computational Fluid Dynamics, roughness modelling",
author = "Sergio Campobasso and Alessio Castorrini and David Bretos and Beatriz Mendez and david Maniaci and Johannes Theron and {Meyer Forsting}, Alexander and Sorensen,, {Niels N.} and Kisorthman Vimalakanthan",
year = "2025",
month = mar,
day = "31",
language = "English",
journal = "International Energy Agency Wind Division",
publisher = "IEA Wind",

}

RIS

TY - GEN

T1 - Validation of the Predictive Capabilities of Computational Aerodynamics Codes to Assess Eroded Blade Performance: First Aerodynamic Benchmark

T2 - International Energy Agency (IEA) Wind Task 46, Work-package 3: Wind turbine operation with erosion

AU - Campobasso, Sergio

AU - Castorrini, Alessio

AU - Bretos, David

AU - Mendez, Beatriz

AU - Maniaci, david

AU - Theron, Johannes

AU - Meyer Forsting, Alexander

AU - Sorensen,, Niels N.

AU - Vimalakanthan, Kisorthman

PY - 2025/3/31

Y1 - 2025/3/31

N2 - The report presents an initial assessment of the predictive capabilities of computational aerodynamics codes used in industry and academia for predicting the aerodynamic performance impairment of wind turbine blades caused by erosion. Both high-fidelity codes, i.e. Navier-Stokes computational fluid dynamics codes, and lower-fidelity methods, i.e. potential flow codes coupled to integral boundary layer equation and transition model and augmented with empirical correlations, are considered in the exercise. The test cases used for the study consist of wind tunnel aerodynamic experiments carried out in state-of-the-art European and American wind tunnels. The results of this investigation are relevant to predicting the turbine power and energy yield loss caused by erosion.

AB - The report presents an initial assessment of the predictive capabilities of computational aerodynamics codes used in industry and academia for predicting the aerodynamic performance impairment of wind turbine blades caused by erosion. Both high-fidelity codes, i.e. Navier-Stokes computational fluid dynamics codes, and lower-fidelity methods, i.e. potential flow codes coupled to integral boundary layer equation and transition model and augmented with empirical correlations, are considered in the exercise. The test cases used for the study consist of wind tunnel aerodynamic experiments carried out in state-of-the-art European and American wind tunnels. The results of this investigation are relevant to predicting the turbine power and energy yield loss caused by erosion.

KW - Aerodynamics

KW - Winf Energy

KW - Wind tunnel experiments

KW - blade erosion

KW - Computational Fluid Dynamics

KW - roughness modelling

M3 - Technical Report

JO - International Energy Agency Wind Division

JF - International Energy Agency Wind Division

PB - IEA Wind

ER -