A NUMERICAL STUDY OF THE TURBULENCE MODEL INFLUENCE ON A SAVONIUS WIND TURBINE PERFORMANCE BY MEANS OF MOVING MESH
This numerical research has investigated the influence of the turbulence model on a Savonius wind turbine performance. The numerical simulation has been applied by using two-dimensional analysis of Computational Fluid Dynamics through moving mesh technique to solve the incompressible Unsteady Reynol...
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Online Access: | https://jmerd.org.my/Paper/Vol.42,No.3(2019)/91-93.pdf |
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doaj-cc6b5a9a6bb642e99a56902926b7cc402020-11-25T02:12:19ZengZibeline InternationalJournal of Mechanical Engineering Research and Developments1024-17522019-05-01423919310.26480/jmerd.03.2019.91.93A NUMERICAL STUDY OF THE TURBULENCE MODEL INFLUENCE ON A SAVONIUS WIND TURBINE PERFORMANCE BY MEANS OF MOVING MESHNopem AriwiyonoPriyo A. SetiawanAdi W. HusodoSudiyonoArief SubektiAnda I. JunianiSubagio So’imProjek P. S. LukitadiRini IndartiFais HamzahThis numerical research has investigated the influence of the turbulence model on a Savonius wind turbine performance. The numerical simulation has been applied by using two-dimensional analysis of Computational Fluid Dynamics through moving mesh technique to solve the incompressible Unsteady Reynolds Averaged Navier-Stokes equations. In this study, the turbulence model has used RNG k-epsilon, standard k- epsilon, Realizable k- epsilon, SST k-omega, standard k- omega, and spalart-allmaras. Firstly, the numerical model has been verified by the experimental data towards the torque coefficient at a tip speed ratio (TSR) of 1.078 and has used the Realizable k-epsilon (RKE). Then the turbulence models are compared with experimental data towards torque coefficient at TSR change. The verification has been achieved and compared to the turbulence model variations. The results of numerical simulation reveal that Realizable k-ε (RKE) has the performance approach of experimental data within the Cp Error about 1.67% at TSR of 0.9.https://jmerd.org.my/Paper/Vol.42,No.3(2019)/91-93.pdfSavonius vertical axis turbinemoving meshturbulence modelrealizable k-epsilonperformance. |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Nopem Ariwiyono Priyo A. Setiawan Adi W. Husodo Sudiyono Arief Subekti Anda I. Juniani Subagio So’im Projek P. S. Lukitadi Rini Indarti Fais Hamzah |
spellingShingle |
Nopem Ariwiyono Priyo A. Setiawan Adi W. Husodo Sudiyono Arief Subekti Anda I. Juniani Subagio So’im Projek P. S. Lukitadi Rini Indarti Fais Hamzah A NUMERICAL STUDY OF THE TURBULENCE MODEL INFLUENCE ON A SAVONIUS WIND TURBINE PERFORMANCE BY MEANS OF MOVING MESH Journal of Mechanical Engineering Research and Developments Savonius vertical axis turbine moving mesh turbulence model realizable k-epsilon performance. |
author_facet |
Nopem Ariwiyono Priyo A. Setiawan Adi W. Husodo Sudiyono Arief Subekti Anda I. Juniani Subagio So’im Projek P. S. Lukitadi Rini Indarti Fais Hamzah |
author_sort |
Nopem Ariwiyono |
title |
A NUMERICAL STUDY OF THE TURBULENCE MODEL INFLUENCE ON A SAVONIUS WIND TURBINE PERFORMANCE BY MEANS OF MOVING MESH |
title_short |
A NUMERICAL STUDY OF THE TURBULENCE MODEL INFLUENCE ON A SAVONIUS WIND TURBINE PERFORMANCE BY MEANS OF MOVING MESH |
title_full |
A NUMERICAL STUDY OF THE TURBULENCE MODEL INFLUENCE ON A SAVONIUS WIND TURBINE PERFORMANCE BY MEANS OF MOVING MESH |
title_fullStr |
A NUMERICAL STUDY OF THE TURBULENCE MODEL INFLUENCE ON A SAVONIUS WIND TURBINE PERFORMANCE BY MEANS OF MOVING MESH |
title_full_unstemmed |
A NUMERICAL STUDY OF THE TURBULENCE MODEL INFLUENCE ON A SAVONIUS WIND TURBINE PERFORMANCE BY MEANS OF MOVING MESH |
title_sort |
numerical study of the turbulence model influence on a savonius wind turbine performance by means of moving mesh |
publisher |
Zibeline International |
series |
Journal of Mechanical Engineering Research and Developments |
issn |
1024-1752 |
publishDate |
2019-05-01 |
description |
This numerical research has investigated the influence of the turbulence model on a Savonius wind turbine performance. The numerical simulation has been applied by using two-dimensional analysis of Computational Fluid Dynamics through moving mesh technique to solve the incompressible Unsteady Reynolds Averaged Navier-Stokes equations. In this study, the turbulence model has used RNG k-epsilon, standard k- epsilon, Realizable k- epsilon, SST k-omega, standard k- omega, and spalart-allmaras. Firstly, the numerical model has been verified by the experimental data towards the torque coefficient at a tip speed ratio (TSR) of 1.078 and has used the Realizable k-epsilon (RKE). Then the turbulence models are compared with experimental data towards torque coefficient at TSR change. The verification has been achieved and compared to the turbulence model variations. The results of numerical simulation reveal that Realizable k-ε (RKE) has the performance approach of experimental data within the Cp Error about 1.67% at TSR of 0.9. |
topic |
Savonius vertical axis turbine moving mesh turbulence model realizable k-epsilon performance. |
url |
https://jmerd.org.my/Paper/Vol.42,No.3(2019)/91-93.pdf |
work_keys_str_mv |
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