1: Haoyu Lu & Lipo Wang, Analysis of droplet vaporization in pulsating counterflows, Combustion Theory and Modelling, 29:6, 695-708 (2025)<\/p>\n
2: J. He, Q. Hu and L. <\/strong>Wang*<\/strong>, \u201cSimilarity mapping flamelet progress variable model for multiple component fuel spray combustion\u201d, Combust. Flame 281, 114404 (2025)<\/p>\n 3: Chenlin Guo, Kunlin Li, Lipo Wang*<\/strong>, Effect of coolant on wall heat flux in premixed turbulent combustion, Flow, Turbulence and Combustion 115<\/strong>, 927\u2013953 (2025)<\/p>\n 4: Junyi He, Qun Hu, Lipo <\/strong>Wang*<\/strong>, Multi-regime turbulent spray combustion modeling by similarity mapping, Combustion and Flame, 279: 114271 (2025)<\/p>\n 5: Junyi He , Ran Yi, Chien-pin Chen, Lipo Wang*<\/strong>, Progress variable based filtered turbulent flame model and its application to a swirl-stabilized flame, Combustion theory and modelling 29:6, 675-694, 2025<\/p>\n 6: Lipo Wang*<\/strong>, Xinyu Mei, Identification of the continuum field structure at multiple scale levels, Chaos 34<\/strong>, 053117 (2024)<\/p>\n 7: Kunlin Li, Lipo Wang*<\/strong>, Evaluation of the wall heat flux in filtered premixed turbulent combustion, Combustion Theory and Modelling, 28:6, 607-622 (2024)<\/p>\n 8: Shijie Qin, Yu Yang, Yongxiang Huang, Xinyu Mei, Lipo Wang, Shijun Liao, Is a direct numerical simulation (DNS) of Navier-Stokes equations with small enough grid spacing and time-step definitely reliable\/correct? Journal of Ocean Engineering and Science 9: 293\u2013310 (2024)<\/p>\n 9: Hu Qun, Lipo Wang*<\/strong>, Turbulent spray combustion modeling in reduced tabulation parameter space by similarity mapping, Combustion and Flame 270: 113749 (2024)<\/p>\n 10: Shuo Yang, Jiangliu Huang, Lipo Wang, Shengjie Yin & Yongxing Shen: A Conservative Solid-Gas Coupling Scheme with Overlapping Meshes for Combustion Simulation of Propellants with Voids, Combustion Science and Technology (2024)<\/p>\n 11: Y.Cang, L. Wang<\/strong>, Understanding AP\/HTPB composite propellant combustion from new perspectives, Combustion and Flame, 259 (2024) 113108<\/p>\n 12: C. Zhang, L. Wang<\/strong>, J. Zhang and Q. Hu, Implementation of the Filtered Turbulent Flame Model in Non-premixed Combustion Simulation, Flow, Turbulence and Combustion, 111, 177\u2013199 (2023)<\/p>\n 13: Y. Cang and L. Wang<\/strong>, An improved fractional-step method on co-located unstructured meshes for weakly compressible flow simulations, Computer and fluids, 253 (2023) 105775<\/p>\n 14: Qun Hu and Lipo Wang<\/strong>,Structure and similarity properties of the laminar counterflow spray flame, Combustion theory and modeling, 27:6,768-786 (2023)<\/p>\n 15: Y. Zhang, Y. Cang, S.Yang, Y. Zhao, K. Li and L. Wang<\/strong>, Simulation of the heterogeneous propellant combustion process with conjugated interface condition (in Chinese), Chinese Journal of explosives and propellants, 46 (2023) 553-560<\/p>\n 16: Wenwei<\/u> Wu, Lipo Wang*<\/strong>, Enrico Calzavarini, Francois G. Schmitt, Reactive scalars in incompressible turbulence with strongly out of equilibrium chemistry, Journal of Fluid Mechanics <\/em>938<\/em>, A19, 2022<\/p>\n 17: Dongxiao Zhao, Francisco E. Hern\u00e1ndez P\u00e9rez, Chenlin Guo, Hong G. Im, Lipo Wang<\/strong>*, Near wall effects on the premixed head-on hydrogen\/air flame, Combustion and Flame<\/em> 244 (2022) 112267<\/p>\n 18: Dongxiao Zhao, Chi Zhang, Francisco E. Hernandez Perez, Hong G. Im, Lipo Wang*<\/strong>, Turbulent premixed hydrogen\/air flame-wall interaction with heterogeneous surface reactions, Proceedings of the Combustion Institute 39 <\/em>(2):2189-2197 (2023)<\/em><\/p>\n 19: Yanrong Zhang, Yu Cang<\/u>, Shuo Yang, Lipo Wang*<\/strong>, Heterogeneous propellant combustion with conjugated interface conditions, Computers and Fluids 240<\/em>, 105397, 2022<\/em><\/p>\n 20: Yu Cang, Yue Hu, Lipo Wang*<\/strong>, Yongxing Shen,<\/strong> Numerical scheme solving the temperature of the interface between gas and heterogeneous solid with phase change, Numerical methods in Engineering 123<\/em>(4), 1036-1056, 2022<\/em><\/p>\n \u00a0<\/em>21: Wenwei Wu<\/u>, Francois G. Schmitt, Enrico Calzavarini, Lipo Wang<\/strong>, A quadratic Reynolds stress development for the turbulent Kolmogorov flow, Phys. Fluids<\/em> 33, 125129, 2021<\/p>\n 22: Xin Tong<\/u>, Lipo Wang*<\/strong>, Jinqiang Chen, Hua Ouyang, A Cartesian grid method with improvement of resolving the boundary layer structure for two-dimensional incompressible flows, International Journal of Numerical Methods in Fluids, 93: 2637-2659 (2021)<\/p>\n 23:\u00a0Guiwen Tan<\/u>, <\/a>Yang Gao,<\/a>Yongxiang Huang,<\/a> Lipo Wang<\/a>*<\/strong>, Multi-level dissipation element analysis of the surface temperature of the South China Sea, Dynamics of Atmospheres and Oceans<\/a>, 2021, 101218<\/span><\/span><\/p>\n 24:\u00a0Xin Tong, Lipo Wang*<\/strong>, Jinqiang Chen, Hua Ouyang, A Cartesian grid method with improvement of resolving the boundary layer structure for two-dimensional incompressible flows, to appear in International Journal for Numerical Methods in Fluids (2021)<\/p>\n 25:\u00a0G. Tan, U. Ahmed, L. Wang*<\/strong>, N. Chakraborty, Quantification of the flame structure at multi-scale levels, Phys. Fluids 32, 125110 (2020)<\/span><\/p>\n 26: Peipei Zhao<\/u>, Lipo Wang*<\/strong>, Nilanjan Chakraborty, Effects of the cold wall boundary on the flame structure and flame speed in premixed turbulent combustion, Proceedings of the Combustion Institute (2020).<\/span><\/p>\n 27: Wenwei Wu*, Enrico Calzavarini, Fran\u00e7ois G. Schmitt, Lipo Wang<\/strong>, Fluctuations and correlations of reactive scalars near chemical equilibrium in incompressible turbulence, PHYSICAL REVIEW FLUIDS 5, 084608 (2020)<\/span><\/p>\n 28:\u00a0Yongxiang Huang, Lipo Wang*<\/strong>, Cascade and intermittency of the sea surface temperature in the oceanic system, physica Scripta 94 (2019) 014009<\/span><\/p>\n 29:\u00a0<\/strong>Weipeng Li,\u00a0<\/span>Lipo Wang*<\/strong>, Geometrical structure analysis of a zero-pressure-gradient turbulent boundary layer, J. Fluid Mech. 846, 318-340 (2018)<\/span><\/p>\n 30:\u00a0Hui Cao,\u00a0<\/span>Lipo Wang<\/strong>*, Qiang Zhang, Xiang Li, Analysis of thermal effects on the normal shock dynamics in a Laval nozzle, AIAA Journal 56(8) 3342-3347 (2018)<\/span><\/p>\n 31: Peipei Zhao,\u00a0<\/span>Lipo Wang*<\/strong>, Nilanjan Chakraborty, Strain rate and flame orientation statistics in the near-wall region for turbulent flame-wall interaction, Combustion Theory and Modelling, Doi: 10.1080\/13647830.2018.1465598<\/span><\/p>\n 32:\u00a0Peipei Zhao,\u00a0<\/span>Lipo Wang*<\/strong>, Nilanjan Chakraborty, Analysis of the flame-wall interaction in premixed turbulent combustion, J. Fluid Mech. 2018(848), pp. 193_218. 2018<\/span><\/p>\n 33: \u00a0E. Calzavarini, Y. X. Huang, F. G. Schmitt,\u00a0<\/span>L. Wang<\/strong>, Propelled micro-probes in turbulence, Physical Review Fluids, 3, 054604 (2018)<\/span><\/p>\n 34:\u00a0Jiawei Lai, Nilanjan Chakraborty, Peipei Zhao,<\/span>\u00a0Lipo Wang<\/strong>, Heat flux and flow topology statistics in oblique and head-on quenching of turbulent premixed flames by isothermal inert walls, Combustion Science and Technology, 191(2): pp.253-281 (2019)<\/span><\/p>\n 35:\u00a0<\/strong>M. Gauding, Lipo Wang, J.H. Goebbert, M. ZBode, L. Danaila, E. Varea, On the self-similarity of line segments in decaying homogeneous isotropic turbulence, to appear in Computers and Fluids.<\/span><\/p>\n 36:\u00a0Peipei Zhao,\u00a0<\/span>Lipo Wang<\/strong>*, Revised Three-Dimensional Navier-Stokes Characteristic Boundary Conditions for Intense Reactive Turbulence, J. Shanghai Jiao Tong Univ. (Sci.), 2018, 23(1): 190-201<\/span><\/p>\n 37:\u00a0<\/span>Lipo Wang<\/strong>*, Yongxiang Huang, Intrinsic flow structure and multifractality in two-dimensional bacterial turbulence,<\/span>PHYSICAL REVIEW E\u00a0<\/span>95<\/strong>, 052215 (2017)<\/span><\/p>\n 38:\u00a0<\/span>Lipo Wang<\/strong>, Analysis of the filtered non-premixed turbulent flame,\u00a0<\/span>Combustion and Flame 175:\u00a0<\/em>259-269 (2017)<\/span><\/p>\n 39:\u00a0Shibo Gu,\u00a0<\/span>Lipo Wang<\/strong>*,<\/strong> David L. S. Hung, Instability evolution of the viscous elliptic liquid jet in the Rayleigh regime, PHYSICAL REVIEW E 95, 063112 (2017)<\/span><\/p>\n 40:\u00a0Nilanjan Chakraborty,<\/span>\u00a0Lipo Wang<\/strong>*<\/strong>, Ilias Konstantinou & Markus Klein, Vorticity statistics based on velocity and density-weighted velocity in premixed reactive turbulence, Journal of Turbulence 18(9): 825-853 (2017)<\/span><\/p>\n 41:\u00a0Yongxiang Huang,\u00a0<\/span>Lipo Wang<\/strong>, Francois Schmidt et al., Extremal-point density of scaling processes: From fractional Brownian motion to turbulence in one dimension, PHYSICAL REVIEW E\u00a0<\/span>96<\/strong>, 012215 (2017)<\/span><\/p>\n 42:\u00a0Z. Lin,\u00a0<\/span>L. Wang<\/strong>, S. Liao, On the origin of intrinsic randomness of Rayleigh-B\u00b4enard turbulence, Science China (Physics, Mechanics & Astronomy) 60(1), 014711 (2017)<\/span><\/p>\n 43:\u00a0<\/span>H. Ma<\/u>, Z. Wang,\u00a0<\/span>L. Wang<\/strong>, Q. Zhang, Ramp heating in high-speed transient thermal measurement with reduced uncertainty,\u00a0<\/span>AIAA Journal of Propulsion and Power<\/em> 32(5): 1190-1198 (2016)<\/span><\/p>\n 44:\u00a0<\/span>Z<\/u>. Sheikh<\/u>,\u00a0<\/span>L. Wang*<\/strong>, Q. Zhang, Flow and roller array interaction at low Reynolds numbers,\u00a0<\/span>Fluid Dynamics Research<\/em>48, 035502 (2016)<\/span><\/p>\n 45:\u00a0<\/span>H<\/u>. Ma<\/u>, Q. Zhang, L. He, Z. Wang,\u00a0<\/span>L. Wang<\/strong>,\u00a0<\/em>Cooling Injection Effect on a Transonic Squealer Tip – Part 1: Experimental Heat Transfer Results and CFD Validation, (ASME)\u00a0<\/span>Journal of Engineering for Gas Turbine and Power,<\/em> 139(5) 052506 (2017)<\/span><\/p>\n 46:\u00a0<\/span>H<\/u>. Ma<\/u>, Q. Zhang, L. He, Z. Wang,\u00a0<\/span>L. Wang<\/strong>,\u00a0<\/em>Cooling Injection Effect on a Transonic Squealer Tip – Part 2: Analysis of Aerothermal Interaction Physics, (ASME)\u00a0<\/span>Journal of Engineering for Gas Turbine and Power,\u00a0<\/em>139(5) 052507 (2017)<\/span><\/p>\n 47:\u00a0X. Miao, Q. Zhang,<\/span>\u00a0L. Wang<\/strong>, H. Jiang and H. Qi, Application of Riblets on Turbine Blade EndWall Secondary Flow Control,\u00a0<\/span>AIAA Journal of Propulsion and Power, 31(6), 1578-1585 (2015)<\/em><\/p>\n 48:\u00a0<\/span>L. Wang*<\/strong>, Y. Huang, Multi-level segment analysis: definition and application in turbulent systems,\u00a0<\/span>Journal of Statistical Mechanics,\u00a0<\/em>1742-5468\/15\/P06018 (2015)<\/span><\/p>\n 49: Lipo Wang<\/strong>, Analysis of the Lagrangian path structure in fluid turbulence, Physics of Fluids. 26, 045104 (2014)<\/span><\/p>\n 50:\u00a0N. Chakraborty,\u00a0<\/span>L. Wang*<\/strong> and M. Klein, Streamline segment statistics of premixed flames with nonunity Lewis numbers, Physical Review E, 89, 033015 (2014)<\/span><\/p>\n 51:\u00a0<\/span>Lipo Wang*<\/strong>\u00a0and Norbert Peters, A new view of flow topology and conditional statistics in turbulence, Philosophical Transactions of the Royal Society A. (2013)\u00a0<\/span>371<\/strong>\u00a0<\/strong>(invited review paper)<\/span><\/p>\n 52:\u00a0<\/span>L. Wang*<\/strong>, N. Chakraborty and J. Zhang, Streamline segment analysis of turbulent premixed flames, Proceedings of the Combustion Institute 34, 1401\u20131409 (2013)<\/span><\/p>\n 53:\u00a0<\/span>Lipo<\/strong>\u00a0Wang<\/strong>, Structures of the vorticity tube segment in turbulence, Phys. Fluids 24, 045101 (2012)<\/span><\/p>\n 54:\u00a0<\/span>Lipo Wang*<\/strong>, E. R. Hawkes and J. H. Chen, Flame edge statistics in turbulent combustion, Proceedings of the Combustion Institute 33, 1439\u20131446 (2011)<\/span><\/p>\n 55:\u00a0<\/span>Lipo Wang<\/strong>, On properties of fluid turbulence along streamlines, J. Fluid Mech. 648: 183\u2013203 (2010)<\/span><\/p>\n 56:\u00a0P. Schaefer, M. Gampert, J.H. Goebbert,\u00a0<\/span>L. Wang<\/strong> and N. Peters, Testing of Model Equations for the Mean Dissipation using <\/span><\/p>\n Kolmogorov Flows, Flow Turbulence Combust 85: 225\u2013243 (2010)<\/span><\/p>\n 57:\u00a0<\/span>Lipo Wang*,<\/strong> Norbert Peters, Mean velocity increment conditioned on gradient trajectories of various scalar variables in turbulence, Phys. Scr. T142: 014004 (2010)<\/span><\/p>\n 58:\u00a0<\/span>Lipo Wang<\/strong>, Scaling of the two-point velocity difference along scalar gradient trajectories in fluid turbulence, Physical Review E 79: 046325 (2009)<\/span><\/p>\n 59:\u00a0J.P.Mellado,\u00a0<\/span>Lipo Wang<\/strong> and Norbert Peters, Gradient trajectory analysis of a scalar field with external intermittency, J. Fluid Mech. 626: 333\u2013365 (2009)<\/span><\/p>\n 60:\u00a0<\/span>Lipo Wang<\/strong>, Norbert Peters, Length scale distribution functions and conditional means for various fields in turbulence, J. Fluid Mech. 608: 113-138 (2008)<\/span><\/p>\n 61:\u00a0<\/span>Lipo Wang<\/strong>, Norbert Peters, Dissipation element analysis of turbulent scalar fields, Physica Scripta T132 014006 (2008)<\/span><\/p>\n 62:\u00a0<\/span>Lipo Wang*<\/strong>