1 |
A 2-D DNS study of the effects of nozzle geometry, ignition kernel placement and initial turbulence on prechamber ignition Benekos S, Frouzakis CE, Giannakopoulos GK, Altantzis C, Boulouchos K Combustion and Flame, 225, 272, 2021 |
2 |
Direct numerical simulations and models for hot burnt gases jet ignition Male Q, Vermorel O, Ravet F, Poinsot T Combustion and Flame, 223, 407, 2021 |
3 |
High-speed continuous production of polymeric nanoparticles with improved stability using a self-aligned coaxial turbulent jet mixer Han HW, Yoon JH, Yi GR, Choi WI, Lim JM Journal of Industrial and Engineering Chemistry, 97, 411, 2021 |
4 |
Continuous synthesis of stable ferrocene nanoparticles using a self-aligned coaxial turbulent jet mixer Na YH, Jeong SH, Woo JS, Han HW, Choi WI, Lim JM, Sung DK Journal of Industrial and Engineering Chemistry, 97, 434, 2021 |
5 |
Prechamber ignition: An exploratory 2-D DNS study of the effects of initial temperature and main chamber composition Benekos S, Frouzakis CE, Giannakopoulos GK, Bolla M, Wright YM, Boulouchos K Combustion and Flame, 215, 10, 2020 |
6 |
Large-Eddy Simulation and analysis of a sooting lifted turbulent jet flame Grader M, Eberle C, Gerlinger P Combustion and Flame, 215, 458, 2020 |
7 |
Experimental and numerical investigations of charge motion and combustion in lean-burn natural gas engines Korb B, Kuppa K, Nguyen HD, Dinkelacker F, Wachtmeister G Combustion and Flame, 212, 309, 2020 |
8 |
Analytical and numerical study of near-field ignition of H-2/air by injection of hot gas Feyz ME, Hasti VR, Gore JP, Nalim MR Combustion and Flame, 219, 373, 2020 |
9 |
Blowout of non-premixed turbulent jet flames with coflow under microgravity condition Wang Q, Hu LH, Wang SM, Wang SF, Chung SH, Fujita O Combustion and Flame, 210, 315, 2019 |
10 |
Flame profile parameters of horizontal turbulent jets: Experiments, similarity analysis and an integral model Liu SX, Delichatsios MA, Hu LH Combustion and Flame, 207, 1, 2019 |