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L. Zheng, K. Bray (1994)
The application of new combustion and turbulence models to H2-air nonpremixed supersonic combustionCombustion and Flame, 99
Yoonho Song, D. Hwang, K. Ahn (2019)
Effect of Orifice Geometry on Column Trajectories of Liquid Jets in CrossflowsInternational Journal of Aeronautical and Space Sciences, 20
F. Ducros, V. Ferrand, F. Nicoud, C. Weber, D. Darracq, C. Gacherieu, T. Poinsot (1999)
Large-Eddy Simulation of the Shock/Turbulence InteractionJournal of Computational Physics, 152
V. Sabelnikov, B. Deshaies, Luı́s Silva (1998)
Revisited Flamelet Model for Nonpremixed Combustion in Supersonic Turbulent FlowsCombustion and Flame, 114
Junya Watanabe, T. Kouchi, K. Takita, G. Masuya (2013)
Characteristics of Hydrogen Jets in Supersonic Crossflow: Large-Eddy Simulation StudyJournal of Propulsion and Power, 29
M. Conaire, H. Curran, J. Simmie, W. Pitz, C. Westbrook (2004)
A comprehensive modeling study of hydrogen oxidationInternational Journal of Chemical Kinetics, 36
A. Ben-Yakar, M. Mungal, R. Hanson (2006)
Time evolution and mixing characteristics of hydrogen and ethylene transverse jets in supersonic crossflowsPhysics of Fluids, 18
N. Adams, K. Shariff (1996)
A High-Resolution Hybrid Compact-ENO Scheme for Shock-Turbulence Interaction ProblemsJournal of Computational Physics, 127
C. Meneveau, T. Lund, W. Cabot (1994)
A Lagrangian dynamic subgrid-scale model of turbulenceJournal of Fluid Mechanics, 319
A. Shamooni, A. Cuoci, T. Faravelli, A. Sadiki (2018)
Prediction of Combustion and Heat Release Rates in Non-Premixed Syngas Jet Flames Using Finite-Rate Scale Similarity Based Combustion ModelsEnergies
M. Gonzalez, R. Borghi (1991)
A Lagrangian Intermittent Model for Turbulent Combustion; Theoretical Basis and Comparisons with Experiments
F. Nicoud, F. Ducros (1999)
Subgrid-Scale Stress Modelling Based on the Square of the Velocity Gradient TensorFlow, Turbulence and Combustion, 62
J. Hirschfelder, C. Curtiss, R. Bird (1954)
Molecular Theory Of Gases And Liquids
A. Yoshizawa (1986)
Statistical theory for compressible turbulent shear flows, with the application to subgrid modelingPhysics of Fluids, 29
M. Obounou, M. Gonzalez, R. Borghi (1994)
A lagrangian model for predicting turbulent diffusion flames with chemical kinetic effects, 25
A. Vincent‐Randonnier, Y. Moule, M. Ferrier (2014)
Combustion of hydrogen in hot air flows within LAPCAT-II Dual Mode Ramjet combustor at Onera-LAERTE facility - Experimental and Numerical Investigation
I. Celik, Zeynep Cehreli, I. Yavuz (2005)
Index of resolution quality for large eddy simulationsJournal of Fluids Engineering-transactions of The Asme, 127
LES of reacting JISCF using a new turbulent combustion model
M. Pettit, B. Coriton, A. Gomez, A. Kempf (2011)
Large-Eddy Simulation and experiments on non-premixed highly turbulent opposed jet flows, 33
M. Gamba, M. Mungal, Ronald Hanson (2010)
Ignition, flame structure and near-wall burning in transverse hydrogen jets in supersonic crossflowJournal of Fluid Mechanics, 780
R. Pandey, Sang-Hyuk Kim, Kwang‐Yong Kim (2020)
Analysis of Interaction Between Oscillating Jet Issuing from a Fluidic Oscillator and a CrossflowInternational Journal of Aeronautical and Space Sciences, 22
C. Duwig, Karl-Johan Nogenmyr, C. Chan, M. Dunn (2011)
Large Eddy Simulations of a piloted lean premix jet flame using finite-rate chemistryCombustion Theory and Modelling, 15
D. Stull (1966)
JANAF thermochemical tables
Chao-yang Liu, Jiangfei Yu, Zhenguo Wang, Mingbo Sun, Hong-bo Wang, H. Grosshans (2019)
Characteristics of hydrogen jet combustion in a high-enthalpy supersonic crossflowPhysics of Fluids
G. Nastac, J. Labahn, L. Magri, M. Ihme (2017)
Lyapunov exponent as a metric for assessing the dynamic content and predictability of large-eddy simulations, 2
Sangsan Lee (1993)
Large eddy simulation of shock turbulence interaction
R. Borghi (1975)
Computational Studies of Turbulent Flows with Chemical Reaction
T. Lu, C. Law (2009)
Toward accommodating realistic fuel chemistry in large-scale computationsProgress in Energy and Combustion Science, 35
(1972)
Représentation de la coalescence et de la redispersion des domaines de ségrégation dans un fluide par unmodele d’interaction phénoménologique
C. Chen, Richard Bernatz, K. Carlson, Wanlai Lin (2020)
Turbulent FlowsFinite Analytic Method in Flows and Heat Transfer
T. Bridel-Bertomeu, P. Boivin (2015)
Explicit Chemical Timescale as a Substitute for Tabulated Chemistry in a H2–O2 Turbulent Flame SimulationCombustion Science and Technology, 187
H. Yamashita, M. Shimada, T. Takeno (1996)
A numerical study on flame stability at the transition point of jet diffusion flames, 26
S. Gottlieb, Chi-Wang Shu (1998)
Total variation diminishing Runge-Kutta schemesMath. Comput., 67
A. Techer (2017)
Simulation aux grandes échelles implicite et explicite de la combustion supersonique
S. Menon, P. Yeung, W. Kim (1994)
Effect of subgrid models on the computed interscale energy transfer in isotropic turbulenceComputers & Fluids, 25
P. Boivin, C. Jiménez, A. Sánchez, F. Williams (2011)
An explicit reduced mechanism for H2–air combustion, 33
D. Balsara, Chi-Wang Shu (2000)
Monotonicity Preserving Weighted Essentially Non-oscillatory Schemes with Increasingly High Order of AccuracyJournal of Computational Physics, 160
P. Boivin, A. Sánchez, F. Williams (2013)
Four-step and three-step systematically reduced chemistry for wide-range H2–air combustion problemsCombustion and Flame, 160
Publisher's Note Springer Nature remains neutral with regard to jurisdictional claims in published maps and institutional affiliations
Bert Vreman, B. Geurts, H. Kuerten (1995)
A priori tests of large eddy simulation of the compressible plane mixing layerJournal of Engineering Mathematics, 29
Modelling the complete flow physics and chemical kinetics of supersonic combustion is a particularly complex and daunting task that requires significant computational resources. To foster performance evaluation tools for future hypersonic vehicles, developing accurate yet computationally efficient solution methods is of great importance. In this work, a new subgrid combustion model for large eddy simulations is derived and used in a three-dimensional in-house flow solver to provide simulations of experimental scramjet ground tests. In particular, this paper introduces a hybrid model closure with the reaction-rate approach to close the filtered chemical source terms in the governing equations for species mass fractions and total energy. The model developed here makes use of a linear bridging function, depending on the segregation rate of the mixture fraction, between a resolved contribution issued from a perfectly stirred reactor (PSR) estimation, and a subgrid-scale (SGS) contribution where a closure that approximates the Lagrangian trajectory in the composition space is retained. The new model considers the effect of fluctuations of compositions and can be extended to take into account, for example, the fluctuations of temperature. The new approach is tested using a hydrogen-fueled scramjet combustor from circular injector into a Mach 2 vitiated airflow for total pressure and temperature of 0.40 MPa and 1695 K, respectively. The selected operating conditions are representative of the LAPCAT-II dual-mode ramjet/scramjet combustion. Chemistry is described using a four-step reduced mechanism. The results obtained with the present modelling proposal are compared to those issued from numerical simulations performed with the quasi-laminar chemistry or PSR approach. These results do show that, even for a highly resolved computational mesh, the effects of composition fluctuations remain significant, especially in the vicinity of the injection where the SGS fluctuations of the scalar field are non-negligible.
International Journal of Aeronautical and Space Sciences – Springer Journals
Published: Feb 1, 2022
Keywords: Turbulent combustion; Large-eddy simulation; Compressible Navier–Stokes equations; Reacting jet in crossflow
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