Kyoto Univ., Dept. of Mechanical Engineering and Science, Thermal Science and Engineering Laboratory 日本語
Direct numerical simulation of detonation–turbulence interaction in hydrogen/oxygen/argon mixtures with a detailed chemistry
MOVIE_1
|
K Iwata, S.Suzuki, R.Kai, R Kurose,
“Direct numerical simulation of detonation–turbulence interaction in hydrogen/oxygen/argon mixtures with a detailed chemistry”,
Physics of Fluids, 35, 046107 (2023).
Numerical investigation of wall effects on combustion noise from a lean-premixed hydrogen/air low-swirl flame
MOVIE_1
|
MOVIE_2
|
J Nagao, AL Pillai, T Shoji, S Tachibana, T Yokomori, R Kurose,
“Numerical investigation of wall effects on combustion noise from a lean-premixed hydrogen/air low-swirl flame”,
Physics of Fluids, 35, 014109 (2023).
LES flamelet modeling of hydrogen combustion considering preferential diffusion effect
MOVIE_1
|
MOVIE_2
|
R. Kai, T. Tokuoka, J. Nagao, A. L. Pillai, R. Kurose,
LES flamelet modeling of hydrogen combustion considering preferential diffusion effect”,
International Journal of Hydrogen Energy, accepted (2022).
Analysis of the evolution of the Surface Density Function during premixed V-shaped flame-wall interaction in a turbulent channel flow at Reτ=395
MOVIE_1
|
R. Kai, A. L. Pillai, U. Ahmed, N. Chakrabotry, R. Kurose,
"Analysis of the evolution of the Surface Density Function during premixed V-shaped flame-wall interaction in a turbulent channel flow at Reτ=395",
Combustion Science and Technology, accepted (2022).
LES study on the breakup mechanism of LOX core in LOX/GH2 supercritical combustion
MOVIE_1
|
MOVIE_2
|
S. Wada, R. Kai, R. Kurose,
"LES study on the breakup mechanism of LOX core in LOX/GH2 supercritical combustion",
Proceedings of the Combustion Institute, accepted (2022).
A flamelet LES of turbulent dense spray flame using a VOF simulation of liquid fuel atomization
MOVIE_1
|
MOVIE_2
|
J. Wen, Y. Hu, T. Nishiie, J. Iino, A. Masri, R. Kurose,
"A flamelet LES of turbulent dense spray flame using a detailed high-resolution VOF simulation of liquid fuel atomization",
Combustion and Flame, 237, 111742, (2022).
Numerical simulations of wall impinging spray flames under CI engine-like conditions
MOVIE_1
|
MOVIE_2
|
A. L. Pillai, R. Kai, T. Murata, T. Ikedo, R. Masuda, R. Kurose,
"Numerical analysis of heat transfer characteristics of spray flames impinging on a wall under CI engine-like conditions",
Combustion and Flame, 239, 111615 (2022).
Large-eddy simulations of combustion instabilities in a liquid-fuelled backward-facing step combustor
 MOVIE_1 |
 MOVIE_2 |
 MOVIE_3 |
 MOVIE_4 |
 MOVIE_5 |
 MOVIE_6 |
A. L. Pillai, J. Nagao, R. Awane, R. Kurose,
“Influences of liquid fuel atomization and flow rate fluctuations on spray combustion instabilities in a backward-facing step combustor”,
Combustion and Flame, 220, 337-356 (2020).
Combustion noise analysis of a turbulent spray flame using a hybrid DNS/APE-RF approach
MOVIE_1
|
MOVIE_2
|
MOVIE_3
|
A. L. Pillai, R. Kurose,
"Combustion noise analysis of a turbulent spray flame using a hybrid DNS/APE-RF approach",
Combustion and Flame, 200, 168-191 (2019).
Interactions between the impinging water droplet and the hydrophobic surface
 MOVIE_1 |
 MOVIE_2 |
 MOVIE_3 |
 MOVIE_4 |
Z. Yuan, J. Wen, M. Matsumoto, R. Kurose,
"Anti-wetting ability of the hydrophobic surface decorated by submillimeter grooves",
International Journal of Multiphase Flow, 131, 103404(2020).
Directional migration of an impinging droplet on a surface with wettability difference
MOVIE_1
|
MOVIE_2
|
MOVIE_3
|
Z. Yuan, M. Matsumoto, and R. Kurose,
"Directional migration of an impinging droplet on a surface with wettability difference",
Physical Review Fluids, 5(11), 113605 (2020).
Detailed numerical simulation of liquid jet atomization and evaporation in crossflows
MOVIE_1
|
MOVIE_2
|
MOVIE_3
|
J. Wen, Y. Hu, A. Nakanishi, R. Kurose,
“Atomization and evaporation process of liquid fuel jets in crossflows: A numerical study using Eulerian/Lagrangian method”,
International Journal of Multiphase Flow, 129, 103331 (15pages) (2020).
Direct numerical simulation of turbulent flow in the vicinity of a sheared wind-driven gas-liquid interface
MOVIE_1
|
MOVIE_2
|
MOVIE_3
|
R. Kurose, N. Takagaki, A. Kimura, S. Komori,
“Direct numerical simulation of turbulent heat transfer across a sheared wind-driven gas-liquid interface”,
Journal of Fluid Mechanics, 804, 646-687 (2016).
N. Takagaki, R. Kurose, Y. Tsujimoto, S. Komori, K. Takahashi,
“Effects of turbulent eddies and Langmuir circulations on scalar transfer in a sheared wind-driven liquid flow”,
Physics of Fluids,27, 016603(2015).