Output-based mesh adaptation for high-speed flows

被引:0
|
作者
Coder, James G. [1 ,4 ]
Couchman, Benjamin L. S. [2 ]
Galbraith, Marshall C. [2 ]
Allmaras, Steven R. [2 ]
Wyman, Nick [3 ]
机构
[1] Penn State Univ, University Pk, PA 16801 USA
[2] MIT, Cambridge, MA USA
[3] Cadence Design Syst, Ft Worth, TX USA
[4] Univ Tennessee, Knoxville, TN USA
关键词
Computational Fluid Dynamics; High-speed flows; Mesh adaptation;
D O I
10.1016/j.compfluid.2024.106208
中图分类号
TP39 [计算机的应用];
学科分类号
081203 ; 0835 ;
摘要
High-speed Computational Fluid Dynamics calculations often rely on structured meshes in order to facilitate aligning the mesh with shocks either manually or via some semi-automated process. The shock alignment of the mesh is often considered critical in order to obtain sufficiently accurate outputs such as integrated surface heat transfer. However, creating shock-aligned structured meshes with complex geometries and/or multiple interacting shocks is challenging, and may not even be feasible for some configurations. Unstructured meshes offer greater flexibility focusing mesh resolution to capture complex geometry and flow features. This work demonstrates that integrated pressure drag computed using automated output-based adapted unstructured meshes can achieve comparable accuracy to special purpose bow shock-aligned structured meshes for a canonical high-speed test case.
引用
收藏
页数:7
相关论文
共 50 条
  • [41] SIMULATION OF HIGH-SPEED CAVITATING FLOWS IN CHANNELS
    Isaenko, I. I.
    Makhnov, A., V
    Smirnov, E. M.
    Schmidt, A. A.
    [J]. ST PETERSBURG POLYTECHNIC UNIVERSITY JOURNAL-PHYSICS AND MATHEMATICS, 2018, 11 (01): : 55 - 65
  • [42] Detonation diffraction in combustible high-speed flows
    Gui, Mingyue
    Fan, Baochun
    Li, Baoming
    [J]. SHOCK WAVES, 2016, 26 (02) : 169 - 180
  • [43] HIGH-SPEED INPUT-OUTPUT DEVICES
    LAPIDUS, G
    [J]. CONTROL ENGINEERING, 1970, 17 (02) : 117 - &
  • [44] Detonation diffraction in combustible high-speed flows
    Mingyue Gui
    Baochun Fan
    Baoming Li
    [J]. Shock Waves, 2016, 26 : 169 - 180
  • [45] Statistical analysis of high-speed jet flows
    Gryazev, Vasily
    Riabov, Vladimir
    Markesteijn, Annabel P.
    Naghibi, Elnaz
    Armani, Umberto
    Toropov, Vassili
    Karabasov, Sergey A.
    [J]. AIAA AVIATION 2022 Forum, 2022,
  • [46] Cavity oscillation mechanisms in high-speed flows
    Ünalmis, ÖH
    Clemens, NT
    Dolling, DS
    [J]. AIAA JOURNAL, 2004, 42 (10) : 2035 - 2041
  • [47] BANDWIDTH OUTPUT AMPLIFIER FOR HIGH-SPEED OSCILLOSCOPE
    PAKHOMOV, LM
    [J]. INSTRUMENTS AND EXPERIMENTAL TECHNIQUES, 1977, 20 (04) : 1225 - 1226
  • [48] A Local Adaptation in an Output-Based Research Support Scheme(OBRSS) at University College Dublin
    Liam Cleere
    Lai Ma
    [J]. Journal of Data and Information Science, 2018, 3 (04) : 74 - 84
  • [49] TRITON: HIGH-SPEED MARITIME WIRELESS MESH NETWORK
    Zhou, Ming-Tuo
    Vinh Dien Hoang
    Harada, Hiroshi
    Pathmasuntharam, Jaya Shankar
    Wang, Haiguang
    Kong, Peng-Yong
    Ang, Chee-Wei
    Ge, Yu
    Wen, Su
    [J]. IEEE WIRELESS COMMUNICATIONS, 2013, 20 (05) : 134 - 142
  • [50] A Local Adaptation in an Output-Based Research Support Scheme (OBRSS) at University College Dublin
    Cleere, Liam
    Ma, Lai
    [J]. JOURNAL OF DATA AND INFORMATION SCIENCE, 2018, 3 (04) : 74 - 84