Parametric optimization for van drag reduction using a side flap

被引:0
|
作者
Fatima-Zahra, Hachimy [1 ,2 ]
Omar, Ashraf [1 ]
Elsayed, Omer [1 ]
Bouchaala, Kenza [1 ]
机构
[1] Int Univ Rabat, Sch Aerosp & Automot Engn, LERMA Lab, Sala Al Jadida, Morocco
[2] Int Univ Rabat, Sch Aerosp & Automot Engn, LERMA Lab, Technopolis Rabat Shore Rocade Rabat, Sale 11100, Morocco
关键词
Drag reduction; CFD; Taguchi test design; van; side flap; wake; FLOW; AERODYNAMICS; VEHICLE; SYSTEM; WAKE;
D O I
10.1177/09544070231164200
中图分类号
TH [机械、仪表工业];
学科分类号
0802 ;
摘要
In current study, the aerodynamic drag reduction of a simplified van model was numerically explored by mounting a side flap on the rear end, on the basis of ANSYS-Fluent, an established Computational Fluid Dynamics (CFD) software. A robust Taguchi test design method was leveraged to optimize the independent parameters related to side flap design in order to achieve the best combination for maximum drag reduction with minimum test numbers. The accuracy of the numerical study was validated using the benchmark, Ahmed body model. The current study outcomes established the efficiency of adding a side flap to weaken the longitudinal vortices, at the rear part of the van model, for the purpose of reducing the aerodynamic drag. In this study, the authors achieved a maximum reduction of 11.50% for total drag coefficient and 11.73% for pressure drag coefficient.
引用
收藏
页码:2312 / 2326
页数:15
相关论文
共 50 条
  • [41] AN AERODYNAMIC DESIGN AND OPTIMIZATION OF A HEAVY TRUCK FOR DRAG REDUCTION
    Selenbas, Bugra
    Gunes, Hasan
    Gocmen, Kenan
    Bahceci, Uygar
    Bayram, Bertan
    [J]. PROCEEDINGS OF THE ASME 10TH BIENNIAL CONFERENCE ON ENGINEERING SYSTEMS DESIGN AND ANALYSIS, 2010, VOL 3, 2010, : 121 - 129
  • [42] Automated cruise flap for airfoil drag reduction over a large lift range
    McAvoy, CW
    Gopalarathnam, A
    [J]. JOURNAL OF AIRCRAFT, 2002, 39 (06): : 981 - 988
  • [43] Automated cruise flap for airfoil drag reduction over a large lift range
    McAvoy, Christopher W.
    Gopalarathnam, Ashok
    [J]. Journal of Aircraft, 1600, 39 (06): : 981 - 988
  • [44] Drag reduction using high molecular weight polyacrylamides during multiphase flow of oil and water: A parametric study
    Eshrati, M.
    Al-Hashmi, A. R.
    Al-Wahaibi, T.
    Al-Wahaibi, Y.
    Al-Ajmi, A.
    Abubakar, A.
    [J]. JOURNAL OF PETROLEUM SCIENCE AND ENGINEERING, 2015, 135 : 403 - 409
  • [45] Aerodynamic design optimization of an aircraft wing for drag reduction using computational fluid dynamics approach
    Kumar, M. R. Shiva
    Srinath, R.
    Vigneshwar, K.
    Kumar, Ravi B.
    [J]. WIND AND STRUCTURES, 2020, 31 (01) : 15 - 20
  • [46] A Numerical Study on the Flap Side-Edge Noise Reduction Using Passive Blowing Air Concept
    Zhang, Yingzhe
    Bai, Baohong
    Lin, Dakai
    Liu, Peiqing
    [J]. AEROSPACE, 2023, 10 (04)
  • [47] Bias in parametric estimation: reduction and useful side-effects
    Kosmidis, Ioannis
    [J]. WILEY INTERDISCIPLINARY REVIEWS-COMPUTATIONAL STATISTICS, 2014, 6 (03): : 185 - 196
  • [48] Comparison of global optimization methods for drag reduction in the automotive industry
    Dumas, L
    Herbert, V
    Muyl, F
    [J]. COMPUTATIONAL SCIENCE AND ITS APPLICATIONS - ICCSA 2005, VOL 4, PROCEEDINGS, 2005, 3483 : 948 - 957
  • [49] Scallop shells exhibit optimization of riblet dimensions for drag reduction
    Anderson, EJ
    MacGillivray, PS
    DeMont, ME
    [J]. BIOLOGICAL BULLETIN, 1997, 192 (03): : 341 - 344
  • [50] Optimization of drag reduction effect of air lubrication for a tanker model
    Park, Seong Hyeon
    Lee, Inwon
    [J]. INTERNATIONAL JOURNAL OF NAVAL ARCHITECTURE AND OCEAN ENGINEERING, 2018, 10 (04) : 427 - 438