Arbitrary Hybrid Turbulence Modeling Approach for High-Fidelity NREL Phase VI Wind Turbine CFD Simulation

Today, growth in renewable energy is increasing, and wind energy is one of the key renewable energy sources which is helping to reduce carbon emissions and build a more sustainable world. Developed countries and worldwide organizations are investing in technology and industrial application developme...

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Main Authors: Bagdaulet Kamalov, Sagidolla Batay, Dinmukhamed Zhangaskhanov, Yong Zhao, Eddie Yin Kwee Ng
Format: Article
Language:English
Published: MDPI AG 2022-07-01
Series:Fluids
Subjects:
Online Access:https://www.mdpi.com/2311-5521/7/7/236
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author Bagdaulet Kamalov
Sagidolla Batay
Dinmukhamed Zhangaskhanov
Yong Zhao
Eddie Yin Kwee Ng
author_facet Bagdaulet Kamalov
Sagidolla Batay
Dinmukhamed Zhangaskhanov
Yong Zhao
Eddie Yin Kwee Ng
author_sort Bagdaulet Kamalov
collection DOAJ
description Today, growth in renewable energy is increasing, and wind energy is one of the key renewable energy sources which is helping to reduce carbon emissions and build a more sustainable world. Developed countries and worldwide organizations are investing in technology and industrial application development. However, extensive experiments using wind turbines are expensive, and numerical simulations are a cheaper alternative for advanced analysis of wind turbines. The aerodynamic properties of wind turbines can be analyzed and optimized using CFD tools. Currently, there is a general lack of available high-fidelity analysis for the wind turbine design community. This study aims to fill this urgent gap. In this paper, an arbitrary hybrid turbulence model (AHTM) was implemented in the open-source code OpenFOAM and compared with the traditional URANS model using the NREL Phase VI wind turbine as a benchmark case. It was found that the AHTM model gives more accurate results than the traditional URANS model. Furthermore, the results of the VLES and URANS models can be improved by improving the mesh quality for usage of higher-order schemes and taking into consideration aeroelastic properties of the wind turbine, which will pave the way for high-fidelity concurrent multidisciplinary design optimization of wind turbines.
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spelling doaj.art-c4ea4aea0b5240c2b300b1d22d6077242023-11-30T23:10:19ZengMDPI AGFluids2311-55212022-07-017723610.3390/fluids7070236Arbitrary Hybrid Turbulence Modeling Approach for High-Fidelity NREL Phase VI Wind Turbine CFD SimulationBagdaulet Kamalov0Sagidolla Batay1Dinmukhamed Zhangaskhanov2Yong Zhao3Eddie Yin Kwee Ng4Department of Mechanical and Aerospace Engineering, Nazarbayev University, Nur-Sultan 010000, KazakhstanDepartment of Mechanical and Aerospace Engineering, Nazarbayev University, Nur-Sultan 010000, KazakhstanDepartment of Mechanical and Aerospace Engineering, Nazarbayev University, Nur-Sultan 010000, KazakhstanDepartment of Mechanical and Aerospace Engineering, Nazarbayev University, Nur-Sultan 010000, KazakhstanSchool of Mechanical and Aerospace Engineering, Nanyang Technological University, Singapore 639798, SingaporeToday, growth in renewable energy is increasing, and wind energy is one of the key renewable energy sources which is helping to reduce carbon emissions and build a more sustainable world. Developed countries and worldwide organizations are investing in technology and industrial application development. However, extensive experiments using wind turbines are expensive, and numerical simulations are a cheaper alternative for advanced analysis of wind turbines. The aerodynamic properties of wind turbines can be analyzed and optimized using CFD tools. Currently, there is a general lack of available high-fidelity analysis for the wind turbine design community. This study aims to fill this urgent gap. In this paper, an arbitrary hybrid turbulence model (AHTM) was implemented in the open-source code OpenFOAM and compared with the traditional URANS model using the NREL Phase VI wind turbine as a benchmark case. It was found that the AHTM model gives more accurate results than the traditional URANS model. Furthermore, the results of the VLES and URANS models can be improved by improving the mesh quality for usage of higher-order schemes and taking into consideration aeroelastic properties of the wind turbine, which will pave the way for high-fidelity concurrent multidisciplinary design optimization of wind turbines.https://www.mdpi.com/2311-5521/7/7/236computational fluid dynamicsturbulencearbitrary hybrid turbulence modelvery large eddy simulationOpenFOAMNREL
spellingShingle Bagdaulet Kamalov
Sagidolla Batay
Dinmukhamed Zhangaskhanov
Yong Zhao
Eddie Yin Kwee Ng
Arbitrary Hybrid Turbulence Modeling Approach for High-Fidelity NREL Phase VI Wind Turbine CFD Simulation
Fluids
computational fluid dynamics
turbulence
arbitrary hybrid turbulence model
very large eddy simulation
OpenFOAM
NREL
title Arbitrary Hybrid Turbulence Modeling Approach for High-Fidelity NREL Phase VI Wind Turbine CFD Simulation
title_full Arbitrary Hybrid Turbulence Modeling Approach for High-Fidelity NREL Phase VI Wind Turbine CFD Simulation
title_fullStr Arbitrary Hybrid Turbulence Modeling Approach for High-Fidelity NREL Phase VI Wind Turbine CFD Simulation
title_full_unstemmed Arbitrary Hybrid Turbulence Modeling Approach for High-Fidelity NREL Phase VI Wind Turbine CFD Simulation
title_short Arbitrary Hybrid Turbulence Modeling Approach for High-Fidelity NREL Phase VI Wind Turbine CFD Simulation
title_sort arbitrary hybrid turbulence modeling approach for high fidelity nrel phase vi wind turbine cfd simulation
topic computational fluid dynamics
turbulence
arbitrary hybrid turbulence model
very large eddy simulation
OpenFOAM
NREL
url https://www.mdpi.com/2311-5521/7/7/236
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AT dinmukhamedzhangaskhanov arbitraryhybridturbulencemodelingapproachforhighfidelitynrelphaseviwindturbinecfdsimulation
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