Numerical simulation of aircraft wake vortex evolution and wake encounters based on adaptive mesh method

被引:18
|
作者
Zhou, Jinxin [1 ]
Chen, Yingchun [1 ,2 ]
Li, Dong [1 ]
Zhang, Zeyu [1 ]
Pan, Weijun [3 ]
机构
[1] Northwestern Polytech Univ, Sch Aeronaut, Xian, Peoples R China
[2] Commercial Aircraft Corp China Ltd, Shanghai, Peoples R China
[3] Civil Aviat Flight Univ China, Coll Air Traff Management, Guanghan, Peoples R China
基金
中国国家自然科学基金;
关键词
Aircraft wake vortex; adaptive mesh method; large eddy simulation; wake encounter; LARGE-EDDY SIMULATION; PARAMETERS; TURBULENCE; VORTICES; DECAY; MODEL;
D O I
10.1080/19942060.2020.1835736
中图分类号
T [工业技术];
学科分类号
08 ;
摘要
The fast and accurate simulation of aircraft wake vortices evolution and safety assessment of wake encounters are important in identifying the hazard zone of wake vortices, reducing wake separation, and increasing the capacity of airports. However, numerical simulation of wake vortices often takes a lot of time due to a large number of grids. In order to reduce the computation time, Solution-Based Dynamic adaptive mesh method is applied to compute the wake vortex evolution using FLUENT. Three cases with different ambient turbulence intensities are carried out with the large eddy simulation (LES) based on adaptive mesh. The numerical result shows that refiner meshes in the region of the vortex core generated by adaptive mesh method can more effectively capture the dynamics of vortices, identify more secondary vortices and reduce the numerical dissipation due to more compact vortex core resolution. Then, the rolling moment of the following aircraft is calculated and the hazard zone is identified for the aircraft pairing of A340 and A320. The results show that the safety of wake encounters has a close relationship with ambient turbulent intensity and development of vortex instability.
引用
收藏
页码:1445 / 1457
页数:13
相关论文
共 50 条
  • [31] Integrated Experimental-Numerical Analysis of High-Agility Aircraft Wake Vortex Evolution
    Klar, Jan-Ulrich
    Breitsamter, Christian
    Hickel, Stefan
    Adams, Nikolaus
    JOURNAL OF AIRCRAFT, 2011, 48 (06): : 2050 - 2058
  • [32] Recognition of Aircraft Wake Vortex Based on Random Forest
    Pan, Weijun
    Yin, Haoran
    Leng, Yuanfei
    Zhang, Xiaolei
    IEEE ACCESS, 2022, 10 : 8916 - 8923
  • [33] Investigation of Aircraft Vortex Wake Structure
    Baranov, N. A.
    Turchak, L. I.
    APPLICATION OF MATHEMATICS IN TECHNICAL AND NATURAL SCIENCES (AMITANS '14), 2014, 1629 : 44 - 55
  • [34] Wake vortex characteristics of transport aircraft
    Breitsamter, C.
    PROGRESS IN AEROSPACE SCIENCES, 2011, 47 (02) : 89 - 134
  • [35] Numerical study on jet-wake vortex interaction of aircraft configuration
    Misaka, Takashi
    Obayashi, Shigeru
    AEROSPACE SCIENCE AND TECHNOLOGY, 2017, 70 : 615 - 625
  • [36] Enhanced adaptive mesh refinement method using advanced vortex identification sensors in wake flow
    Pang, Chao
    Yang, Hua
    Gao, Zhenghong
    Chen, Shusheng
    AEROSPACE SCIENCE AND TECHNOLOGY, 2021, 115
  • [37] Dynamic Load Alleviation in Wake Vortex Encounters
    Hesse, Henrik
    Palacios, Rafael
    JOURNAL OF GUIDANCE CONTROL AND DYNAMICS, 2016, 39 (04) : 801 - 813
  • [38] Automated pilot assistance for wake vortex encounters
    Schwarz, C.
    Hahn, K. -U.
    AEROSPACE SCIENCE AND TECHNOLOGY, 2011, 15 (05) : 416 - 421
  • [39] Numerical Simulation of Bubbly Wake behind High-speed Transom Stern Based on Adaptive Cartesian Mesh
    Yang, Yuxiao
    Liu, Cheng
    Wan, Decheng
    Ship Building of China, 2022, 63 (01) : 1 - 13
  • [40] Aircraft wake-vortex evolution in ground proximity: Analysis and parameterization
    Holzäpfel, Frank
    Steen, Meiko
    AIAA Journal, 2007, 45 (01): : 218 - 227