A Parametric study on the effects of winglet cant angle on wing aerodynamics and aeroacoustics
Abstract The use of winglet devices is an efficient technique for enhancing aerodynamic performance. This study investigates the effects of winglet cant angles on both the aerodynamics and aeroacoustics of a commercial wing, comparing them to other significant parameters using a parametric analysis....
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Nature Portfolio
2025-01-01
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Online Access: | https://doi.org/10.1038/s41598-024-84453-6 |
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author | Erfan Vaezi S. Amirreza S. Madani Amir Keshmiri |
author_facet | Erfan Vaezi S. Amirreza S. Madani Amir Keshmiri |
author_sort | Erfan Vaezi |
collection | DOAJ |
description | Abstract The use of winglet devices is an efficient technique for enhancing aerodynamic performance. This study investigates the effects of winglet cant angles on both the aerodynamics and aeroacoustics of a commercial wing, comparing them to other significant parameters using a parametric analysis. A Full Factorial Design method is employed to generate a matrix of experiments, facilitating a detailed exploration of flow physics, with lift-to-drag ratio (L/D) and the integral of Acoustic Power Level (APL) as the primary representatives of aerodynamic and acoustic performance, respectively. The RANS formulation, along with the $$k{-}\epsilon$$ Realizable model and the Broadband Noise Source (BNS) model, are utilized to accurately simulate subsonic flows numerically. The study begins by examining the pressure coefficient ( $$C_p$$ ) and APL distributions at various cant angles near the wingtip and root areas. The matrix of experiments is then analyzed to identify the most influential parameters based on the main effects of inputs and their two-way interactions. The results demonstrate that variations in winglet cant angle significantly alter the distribution of $$C_p$$ and APL along the span, particularly near the wingtip, and that cant angle strongly impacts overall performance, at times even outweighing atmospheric parameters such as pressure and temperature. |
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institution | Kabale University |
issn | 2045-2322 |
language | English |
publishDate | 2025-01-01 |
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spelling | doaj-art-6e9e9eeaf789496b9588c7c3005b6eaa2025-01-12T12:24:26ZengNature PortfolioScientific Reports2045-23222025-01-0115111910.1038/s41598-024-84453-6A Parametric study on the effects of winglet cant angle on wing aerodynamics and aeroacousticsErfan Vaezi0S. Amirreza S. Madani1Amir Keshmiri2Department of Aerospace Engineering, Sharif University of TechnologyFaculty of Aerospace Engineering, Delft University of TechnologySchool of Engineering, The University of ManchesterAbstract The use of winglet devices is an efficient technique for enhancing aerodynamic performance. This study investigates the effects of winglet cant angles on both the aerodynamics and aeroacoustics of a commercial wing, comparing them to other significant parameters using a parametric analysis. A Full Factorial Design method is employed to generate a matrix of experiments, facilitating a detailed exploration of flow physics, with lift-to-drag ratio (L/D) and the integral of Acoustic Power Level (APL) as the primary representatives of aerodynamic and acoustic performance, respectively. The RANS formulation, along with the $$k{-}\epsilon$$ Realizable model and the Broadband Noise Source (BNS) model, are utilized to accurately simulate subsonic flows numerically. The study begins by examining the pressure coefficient ( $$C_p$$ ) and APL distributions at various cant angles near the wingtip and root areas. The matrix of experiments is then analyzed to identify the most influential parameters based on the main effects of inputs and their two-way interactions. The results demonstrate that variations in winglet cant angle significantly alter the distribution of $$C_p$$ and APL along the span, particularly near the wingtip, and that cant angle strongly impacts overall performance, at times even outweighing atmospheric parameters such as pressure and temperature.https://doi.org/10.1038/s41598-024-84453-6Blended WingletNumerical SimulationCant AngleSensitivity AnalysisAeroacoustic Performance |
spellingShingle | Erfan Vaezi S. Amirreza S. Madani Amir Keshmiri A Parametric study on the effects of winglet cant angle on wing aerodynamics and aeroacoustics Scientific Reports Blended Winglet Numerical Simulation Cant Angle Sensitivity Analysis Aeroacoustic Performance |
title | A Parametric study on the effects of winglet cant angle on wing aerodynamics and aeroacoustics |
title_full | A Parametric study on the effects of winglet cant angle on wing aerodynamics and aeroacoustics |
title_fullStr | A Parametric study on the effects of winglet cant angle on wing aerodynamics and aeroacoustics |
title_full_unstemmed | A Parametric study on the effects of winglet cant angle on wing aerodynamics and aeroacoustics |
title_short | A Parametric study on the effects of winglet cant angle on wing aerodynamics and aeroacoustics |
title_sort | parametric study on the effects of winglet cant angle on wing aerodynamics and aeroacoustics |
topic | Blended Winglet Numerical Simulation Cant Angle Sensitivity Analysis Aeroacoustic Performance |
url | https://doi.org/10.1038/s41598-024-84453-6 |
work_keys_str_mv | AT erfanvaezi aparametricstudyontheeffectsofwingletcantangleonwingaerodynamicsandaeroacoustics AT samirrezasmadani aparametricstudyontheeffectsofwingletcantangleonwingaerodynamicsandaeroacoustics AT amirkeshmiri aparametricstudyontheeffectsofwingletcantangleonwingaerodynamicsandaeroacoustics AT erfanvaezi parametricstudyontheeffectsofwingletcantangleonwingaerodynamicsandaeroacoustics AT samirrezasmadani parametricstudyontheeffectsofwingletcantangleonwingaerodynamicsandaeroacoustics AT amirkeshmiri parametricstudyontheeffectsofwingletcantangleonwingaerodynamicsandaeroacoustics |