Review of numerical simulations for high-speed, turbulent cavity flows

被引:193
|
作者
Lawson, S. J. [1 ]
Barakos, G. N. [1 ]
机构
[1] Univ Liverpool, CFD Lab, Liverpool L63 3GH, Merseyside, England
基金
英国工程与自然科学研究理事会;
关键词
LARGE-EDDY SIMULATION; INDUCED PRESSURE OSCILLATIONS; NAVIER-STOKES; COMPRESSIBLE FLOW; SUPERSONIC-FLOW; SHEAR-LAYER; INFLOW CONDITIONS; ACOUSTIC ANALOGY; SEPARATED FLOWS; PASSIVE CONTROL;
D O I
10.1016/j.paerosci.2010.11.002
中图分类号
V [航空、航天];
学科分类号
08 ; 0825 ;
摘要
High speed flows inside cavities are encountered in many aerospace applications including weapon bays of combat aircraft as well as landing gear. The flow field inside these cavities is associated with strong acoustic effects, unsteadiness and turbulence. With increasing emphasis on stealth operation of unmanned combat air vehicles and noise concerns near airports, cavity flows attracted the interest of many researchers in aerodynamics and aeroacoustics. Several attempts were made using wind tunnel experimentation and computational fluid dynamics analyses to understand the complex flow physics associated with cavity flows and alleviate their adverse effects via flow control. The problem proved to be complex, and current research revealed a very complex flow with several flow phenomena taking place. With the aid of experiments, CFD methods were validated and then used for simulations of several cavity configurations. The detached-eddy and large-eddy simulation methods proved invaluable for these studies and their application highlights the need for advanced turbulence simulation techniques in aerospace. The success of these methods and a summary of the current status of the experimental and computational progress over the past twenty years is summarised in this paper. (C) 2010 Elsevier Ltd. All rights reserved.
引用
收藏
页码:186 / 216
页数:31
相关论文
共 50 条
  • [1] Numerical Simulations of High-Speed Turbulent Cavity Flows
    Barakos, G. N.
    Lawson, S. J.
    Steijl, R.
    Nayyar, P.
    FLOW TURBULENCE AND COMBUSTION, 2009, 83 (04) : 569 - 585
  • [2] An Optimized Low-Dissipation Monotonicity-Preserving Scheme for Numerical Simulations of High-Speed Turbulent Flows
    Fang, Jian
    Li, Zhaorui
    Lu, Lipeng
    JOURNAL OF SCIENTIFIC COMPUTING, 2013, 56 (01) : 67 - 95
  • [3] Numerical tripping of high-speed turbulent boundary layers
    Ceci, Alessandro
    Palumbo, Andrea
    Larsson, Johan
    Pirozzoli, Sergio
    THEORETICAL AND COMPUTATIONAL FLUID DYNAMICS, 2022, 36 (06) : 865 - 886
  • [4] Numerical Methods for High-Speed Flows
    Pirozzoli, Sergio
    ANNUAL REVIEW OF FLUID MECHANICS, VOL 43, 2011, 43 : 163 - 194
  • [5] Analysis of the equilibrium wall model for high-speed turbulent flows
    Iyer, Prahladh S.
    Malik, Mujeeb R.
    PHYSICAL REVIEW FLUIDS, 2019, 4 (07)
  • [6] Spatiotemporal super-resolution forecasting of high-speed turbulent flows
    Sofos, Filippos
    Drikakis, Dimitris
    Kokkinakis, Ioannis William
    Spottswood, S. Michael
    PHYSICS OF FLUIDS, 2025, 37 (01)
  • [7] Stochastic Modelling of Turbulent Flows for Numerical Simulations
    Cintolesi, Carlo
    Memin, Etienne
    FLUIDS, 2020, 5 (03)
  • [8] Numerical Investigation of High-Speed Turbulent Boundary Layers of Dense Gases
    Sciacovelli, Luca
    Gloerfelt, Xavier
    Passiatore, Donatella
    Cinnella, Paola
    Grasso, Francesco
    FLOW TURBULENCE AND COMBUSTION, 2020, 105 (02) : 555 - 579
  • [9] A Review of Laboratory and Numerical Techniques to Simulate Turbulent Flows
    Ferrari, Simone
    Rossi, Riccardo
    Di Bernardino, Annalisa
    ENERGIES, 2022, 15 (20)
  • [10] Numerical Investigation of Aero-Optical Distortions from High-Speed Turbulent Boundary Layers
    Castillo, Pedro
    Gross, Andreas
    Miller, Nathan E.
    Lynch, Kyle P.
    Guildenbecher, Daniel R.
    Gordeyev, Stanislav
    AIAA JOURNAL, 2024, 62 (10) : 3616 - 3629