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TVT, 2012, Volume 50, Issue 3, Pages 450–466 (Mi tvt352)  

This article is cited in 11 scientific papers (total in 11 papers)

Heat and Mass Transfer and Physical Gasdynamics

Development and application of a high-resolution technique for jet flow computation using large eddy simulation

D. A. Lyubimov

Baranov Central Institute of Aviation Motor Building, Moscow, 111250, Russia

Abstract: A high-resolution technique of large eddy simulation with the implicit subgrid model (ILES) is presented for computation of compressible turbulent flows. The technique is applied to computation of jet flows. The nozzle and jet flows were computed jointly for obtaining realistic flow parameters at the nozzle exit section. Two approaches to the flow simulation in the boundary layer and in the nozzle are considered. The Reynolds-averaged Navier–Stokes (RANS) equations are used for the boundary layer description in the first approach. For the RANS/ILES method, the influence of the order of difference approximation of convection terms in the Navier–Stokes equations on the resolvability of the developed method is shown. The computations were performed for subsonic and off-design supersonic jets on a grid containing $1.1\times10^6$ cells. It is found that an increase in the order of the difference approximation from five to nine enables the accuracy of results to be improved without increasing the number of computation grid cells. The high workability of the method is demonstrated for computation of supersonic flows with separations. In the second approach, the largest eddies in the boundary layer were resolved explicitly, and the flow near the wall was described by the simplified wall model (WM). Use of the WMILES method for joint computation of the nozzle and jet flows made it possible to refine the description of the turbulent mixing layer near the nozzle exit section and improve the accuracy of agreement with the experiment. The flows in different-shape chevron nozzles and their jets were jointly computed using the WMILES method on the grids with $(2.3$$2.5)\times 10^6$ cells. The agreement of the computations with the experiment for the level of maximum fluctuations in the mixing layer was improved appreciably as compared to the computations using the RANS/ILES method. A possible explanation is found for the growth in high-frequency noise in the investigated chevron nozzles, which is observed in the experiment.

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English version:
High Temperature, 2012, 50:3, 420–436

Bibliographic databases:

UDC: 532.222.2:519.6
Received: 28.12.2010

Citation: D. A. Lyubimov, “Development and application of a high-resolution technique for jet flow computation using large eddy simulation”, TVT, 50:3 (2012), 450–466; High Temperature, 50:3 (2012), 420–436

Citation in format AMSBIB
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\by D.~A.~Lyubimov
\paper Development and application of a high-resolution technique for jet flow computation using large eddy simulation
\jour TVT
\yr 2012
\vol 50
\issue 3
\pages 450--466
\mathnet{http://mi.mathnet.ru/tvt352}
\elib{http://elibrary.ru/item.asp?id=17726308}
\transl
\jour High Temperature
\yr 2012
\vol 50
\issue 3
\pages 420--436
\crossref{https://doi.org/10.1134/S0018151X12020101}
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\elib{http://elibrary.ru/item.asp?id=20471004}
\scopus{http://www.scopus.com/record/display.url?origin=inward&eid=2-s2.0-84865359356}


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    Citing articles on Google Scholar: Russian citations, English citations
    Related articles on Google Scholar: Russian articles, English articles

    This publication is cited in the following articles:
    1. D. A. Lyubimov, “Investigation of the effect of a pylon and a wing with flaps on the flow within an exhaust jet of a double-flow turbojet engine by a simulation method for large eddies”, High Temperature, 51:1 (2013), 111–127  mathnet  crossref  isi  elib  elib
    2. Cheprasov S.A., “Modeling Transonic Weakly Underexpanded Turbulent Jets”, Fluid Dyn., 48:5 (2013), 612–620  crossref  mathscinet  zmath  isi  elib  elib
    3. Benderskii L.A., Lyubimov D.A., Makarov A.Yu., Potekhina I.V., Fedorenko A.E., “Chislennoe modelirovanie turbulentnykh techenii s pomoschyu rans/iles-metodov vysokogo razresheniya v aviatsionnykh prilozheniyakh”, Parallelnye vychislitelnye tekhnologii, 2013, 582–582  elib
    4. A. N. Kraiko, “Matematicheskie modeli dlya opisaniya techenii gaza i inorodnykh chastits i nestatsionarnoi filtratsii zhidkosti i gaza v poristykh sredakh”, Vestn. YuUrGU. Ser. Matem. modelirovanie i programmirovanie, 7:1 (2014), 34–48  mathnet  crossref
    5. Lyubimov D., Maslov V., Mironov A., Secundov A., Zakharov D., “Experimental and Numerical Investigation of Jet Flap Interaction Effects”, Int. J. Aeroacoust., 13:3-4 (2014), 275–302  crossref  isi  elib
    6. Benderskii L.A. Lyubimov D.A., “Analysis of the Nozzle Exit Flow Parameter Effect on the Turbulence Characteristics and the Noise Level in Jets Issuing From Nozzles of Different Types”, Fluid Dyn., 50:6 (2015), 812–819  crossref  isi
    7. D. A. Lyubimov, I. V. Potekhina, “A study of unsteady-state operating conditions of a supersonic inlet by the RANS/ILES method”, High Temperature, 54:5 (2016), 737–744  mathnet  crossref  crossref  isi  elib
    8. J. Tyacke, I. Naqavi, Zh.-N. Wang, P. Tucker, P. Boehning, “Predictive large eddy simulation for jet aeroacoustics – current approach and industrial application”, J. Turbomach.-Trans. ASME, 139:8 (2017), 081003  crossref  isi  scopus
    9. S. A. Cheprasov, “Modelirovanie avtokolebanii v ustanovkakh s goreniem”, Matem. modelirovanie, 30:4 (2018), 66–72  mathnet  elib
    10. L. A. Benderskii, D. A. Lyubimov, A. O. Chestnikh, B. M. Shabanov, A. A. Rybakov, “The use of the RANS/ILES method to study the influence of coflow wind on the flow in a hot, nonisobaric, supersonic airdrome jet during its interaction with the jet blast deflector”, High Temperature, 56:2 (2018), 247–254  mathnet  crossref  crossref  isi  elib  elib
    11. Lyubimov D. Fedorenko A., “External Flow Velocity and Synthetic Jets Parameters Influence on Cavity Flow Structure and Acoustics Characteristics Using Rans/Iles”, Int. J. Aeroacoust., 17:3 (2018), 259–274  crossref  isi  scopus
  • Teplofizika vysokikh temperatur Teplofizika vysokikh temperatur
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