Analysis of dynamic stall control on a pitching airfoil using dynamic mode decomposition

被引：1
作者：
Zhong, Junwei [1 ,2 ]
Li, Jingyin [3 ,4 ]
Liu, Huizhong [1 ,2 ]
机构：
[1] Jiangxi Univ Sci & Technol, Sch Mech & Elect Engn, Ganzhou, Peoples R China
[2] Jiangxi Univ Sci & Technol, Jiangxi Prov Engn Res Ctr Mech & Elect Min & Met, Ganzhou, Peoples R China
[3] Xi An Jiao Tong Univ, Sch Energy & Power Engn, Xian, Peoples R China
[4] Xi An Jiao Tong Univ, Dept Fluid Machinery & Engn, 28 Xianning Western Rd, Xian 710049, Shaanxi, Peoples R China
来源：
PROCEEDINGS OF THE INSTITUTION OF MECHANICAL ENGINEERS PART A-JOURNAL OF POWER AND ENERGY | 2023年 / 237卷 / 08期
基金：
中国国家自然科学基金;
关键词：
Dynamic stall; wind turbine airfoil; numerical simulation; dynamic mode decomposition; WAKE;
D O I：
10.1177/09576509231177103
中图分类号：
O414.1 [热力学];
学科分类号：
摘要：
Dynamic mode decomposition (DMD) technology is used to analyze the control of dynamic stall on a pitching S809 airfoil using an off-surface rod. The unsteady flows around the original and the controlled airfoil are simulated by using the SST k-omega turbulence model. With the introduction of the off-surface rod, the hysteresis effect of the dynamic stall process of the original airfoil is considerably reduced, and the clockwise sub-loop of the pitching moment coefficient is eliminated. The improvement of the dynamic stall process is beneficial to the safe and high-efficiency operations of wind turbine. The coherent structure of the unsteady flow fields are decoupled by the DMD method compiled by an in-house code in MATLAB. Results reveal that the hysteresis effect is dominated by mode 2 with a pitching frequency and mode 3 with twice the pitching frequency. The global energy of the two modes is reduced by the off-surface rod, which alleviates the hysteresis effect for the original airfoil.
引用
收藏
页码：1699 / 1714
页数：16
相关论文
共 33 条
[1]   Transition to bluff-body dynamics in the wake of vertical-axis wind turbines [J].
Araya, Daniel B. ;
Colonius, Tim ;
Dabiri, John O. .
JOURNAL OF FLUID MECHANICS, 2017, 813 :346-381
[2]   Methods to control dynamic stall for wind turbine applications [J].
Choudhry, Amanullah ;
Arjomandi, Maziar ;
Kelso, Richard .
RENEWABLE ENERGY, 2016, 86 :26-37
[3]   Dynamic Stall in Pitching Airfoils: Aerodynamic Damping and Compressibility Effects [J].
Corke, Thomas C. ;
Thomas, Flint O. .
ANNUAL REVIEW OF FLUID MECHANICS, VOL 47, 2015, 47 :479-505
[4]   Controlling dynamic stall using vortex generators on a wind turbine airfoil [J].
De Tavernier, D. ;
Ferreira, C. ;
Vire, A. ;
LeBlanc, B. ;
Bernardy, S. .
RENEWABLE ENERGY, 2021, 172 :1194-1211
[5]   Dynamic stall on a pitching and surging airfoil [J].
Dunne, Reeve ;
McKeon, Beverley J. .
EXPERIMENTS IN FLUIDS, 2015, 56 (08)
[6]   Enhancement of a horizontal axis wind turbine airfoil performance using single dielectric barrier discharge plasma actuator [J].
Fadaei, Mohaddeseh ;
Davari, Ali R. ;
Sabetghadam, Fereidoun ;
Soltani, Mohammad R. .
PROCEEDINGS OF THE INSTITUTION OF MECHANICAL ENGINEERS PART A-JOURNAL OF POWER AND ENERGY, 2021, 235 (03) :476-493
[7]   A combined method of CFD simulation and modified Beddoes-Leishman model to predict the dynamic stall characterizations of S809 airfoil [J].
Huang, Bin ;
Wang, Pengzhong ;
Wang, Lu ;
Cao, Tingfa ;
Wu, Dazhuan ;
Wu, Peng .
RENEWABLE ENERGY, 2021, 179 (179) :1636-1649
[8]   Large eddy simulation of dynamic stall flow control for wind turbine airfoil using plasma actuator [J].
Li Guoqiang ;
Yi Shihe .
ENERGY, 2020, 212
[9]   Method of dynamic mode decomposition and reconstruction with application to a three-stage multiphase pump [J].
Liu, Ming ;
Tan, Lei ;
Cao, Shuliang .
ENERGY, 2020, 208
[10]   An improved dynamic stall model and its effect on wind turbine fatigue load prediction [J].
Liu, Xiong ;
Liang, Shi ;
Li, Gangqiang ;
Godbole, Ajit ;
Lu, Cheng .
RENEWABLE ENERGY, 2020, 156 :117-130
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