1 - 6 |
Observed dependence of characteristics of liquid-pool fires on swirl magnitude Coenen W, Kolb EJ, Sanchez AL, Williams FA |
7 - 10 |
Role of ozone doping in the explosion limits of hydrogen-oxygen mixtures: Multiplicity and catalyticity Liang WK, Wang YR, Law C |
11 - 21 |
Providing effective constraints for developing ketene combustion mechanisms: A detailed kinetic investigation of diacetyl flames Sun WY, Wang JX, Huang C, Hansen N, Yang B |
22 - 32 |
Intrinsic thermoacoustic feedback loop in turbulent spray flames Ghani A, Steinbacher T, Albayrak A, Polifke W |
33 - 40 |
Pre-stressing aluminum nanoparticles as a strategy to enhance reactivity of nanothermite composites Jacob RJ, Hill KJ, Yang Y, Pantoya ML, Zachariah MR |
41 - 54 |
A species-clustered splitting scheme for the integration of large-scale chemical kinetics using detailed mechanisms Wang JH, Pan SC, Hu XY, Adams NA |
55 - 67 |
Microgravity diffusion flame spread over a thick solid in step-changed low-velocity opposed flows Zhu F, Lu ZB, Wang SF, Yin YL |
68 - 79 |
Enhancing ignition and combustion characteristics of micron-sized aluminum powder in steam by adding sodium fluoride Zhu BZ, Li F, Sun YL, Wu YX, Shi W, Han WK, Wang QC, Wang Q |
80 - 92 |
High-pressure pyrolysis and oxidation of DME and DME/CH4 Hashemi H, Christensen JM, Glarborg P |
93 - 108 |
Filtered Wrinkled Flamelets model for Large-Eddy Simulation of turbulent premixed combustion Mercier R, Mehl C, Fiorina B, Moureau V |
109 - 122 |
Experimental investigation of aerodynamics and structure of a swirl-stabilized kerosene spray flame with laser diagnostics Malbois P, Salaun E, Vandel A, Godard G, Cabot G, Renou B, Boukhalfa AM, Grisch F |
123 - 132 |
Non-linear response of the flame velocity to moderately large curvatures in laminar jet flames of methane-air mixtures Garcia-Soriano G, Margenat S, Higuera FJ, Castillo JL, Garcia-Ybarra PL |
133 - 134 |
A comment on papers by Zhou et al. (CNF, 2018) and Zhou et al. (CST, 2019): Flame displacement speed, flame front velocity, and edge (reactants) velocity Kheirkhah S, Gulder OL |
135 - 146 |
Buoyancy effect in sooting laminar premixed ethylene flame Pejpichestakul W, Cuoci A, Frassoldati A, Pelucchi M, Parente A, Faravelli T |
147 - 153 |
Conditions for formation of the blue whirl Hu Y, Hariharan SB, Qi HY, Gollner MJ, Oran ES |
154 - 164 |
On the early stages of soot formation: Molecular structure elucidation by high-resolution atomic force microscopy Commodo M, Kaiser K, De Falco G, Minutolo P, Schulz F, D'Anna A, Gross L |
165 - 179 |
Oxidation chemistry of four C9H12 isomeric transportation fuels: Experimental and modeling studies Liu YX, Tian ZY |
180 - 192 |
Soot inception in laminar coflow diffusion flames Bartosa D, Sirignano M, Dunn MJ, D'Anna A, Masri AR |
193 - 205 |
Impact of conformational structures on primary decomposition of cis-1,2-dimethylcyclohexyl isomers: A theoretical study Bian HT, Ye LL, Li J, Sun JH, Liang TS, Zhong W, Zhao J |
206 - 219 |
Influence of fuel-oxygen content on morphology and nanostructure of soot particles Verma P, Pickering E, Jafari M, Guo Y, Stevanovic S, Fernando JFS, Golberg D, Brooks P, Brown R, Ristovski Z |
220 - 230 |
Occurrence of multiple flame fronts in reheat combustors Gant F, Scarpato A, Bothien MR |
231 - 240 |
The breakdown of self-similarity in electrified counterflow diffusion flames Di Renzo M, Pascazio G, Urzay J |
241 - 252 |
High-temperature laminar flame speed measurements in a shock tube Ferris AM, Susa AJ, Davidson DF, Hanson RK |
253 - 268 |
Combustion regimes in sequential combustors: Flame propagation and autoignition at elevated temperature and pressure Schulz O, Noiray N |
269 - 277 |
Temperature gradient induced detonation development inside and outside a hotspot for different fuels Pan JY, Dong S, Wei HQ, Li T, Shu GQ, Zhou L |
278 - 285 |
Experimental effective metal oxides to enhance boron combustion Huang SD, Deng SL, Jiang Y, Zheng XL |
286 - 294 |
Role of radicals in carbon clustering and soot inception: A combined EPR and Raman spectroscopic study Vitiello G, De Falco G, Picca F, Commodo M, D'Errico G, Minutolo P, D'Anna A |
295 - 304 |
Preferential vaporization impacts on lean blow-out of liquid fueled combustors Won SH, Rock N, Lim SJ, Nates S, Carpenter D, Emerson B, Lieuwen T, Edwards T, Dryer FL |
305 - 315 |
A Bayesian approach to calibrating hydrogen flame kinetics using many experiments and parameters Bell J, Day M, Goodman J, Grout R, Morzfeld M |
316 - 326 |
Experimental and theoretical study of secondary acoustic instability of downward propagating flames: Higher modes and growth rates Dubey AK, Koyama Y, Hashimoto N, Fujita O |
327 - 335 |
A strategy for increasing the energy release rate of aluminum by replacing the alumina passivation shell with aluminum iodate hexahydrate (AIH) Kalman J, Smith DK, Miller KK, Bhattacharia SK, Bratton KR, Pantoya ML |
336 - 344 |
Temperature and water measurements in flames using 1064 nm Laser-Induced Grating Spectroscopy (LIGS) De Domenico F, Guiberti TF, Hochgreb S, Roberts WL, Magnotti G |
345 - 357 |
Investigation of the partial oxidation of methane/n-heptane-mixtures and the interaction of methane and n-heptane under ultra-rich conditions Kaczmarek D, Atakan B, Kasper T |
358 - 367 |
Experimental and numerical study of polyoxymethylene (Aldrich) combustion in counterflow Glaznev RK, Karpov AI, Korobeinichev OP, Bolkisev AA, Shaklein AA, Shmakov AG, Paletsky AA, Gonchikzhapov MB, Kumar A |
368 - 370 |
Radiative extinction of burner-supported spherical diffusion flames: A scaling analysis Nayagam V, Dietrich DL, Williams FA |
371 - 377 |
Effects of electrode spark gap, differential diffusion, and turbulent dissipation on two distinct phenomena: Turbulent facilitated ignition versus minimum ignition energy transition Shy SS, Nguyen MT, Huang SY |
378 - 388 |
Auto-ignition characteristics of end-gas in a rapid compression machine under super-knock conditions Qi YL, Wang YD, Li YF, Wang JX, He X, Wang Z |
389 - 396 |
Self-propagating combustion of sputter-deposited Al/CuO nanolaminates Zapata J, Nicollet A, Julien B, Lahiner G, Esteve A, Rossi C |
397 - 406 |
On the microexplosion mechanisms of burning droplets blended with biodiesel and alcohol Chao CY, Tsai HW, Pan KL, Hsieh CW |
407 - 414 |
Increasing the heating efficiency and ignition rate of certain secondary explosives with absorbing particles under continuous infrared laser radiation Konovalov AN, Yudin NV, Kolesov VI, Ul'yanov VA |
415 - 421 |
Michelson-Markstein effect in combustion of solid homogeneous energetic materials Krupkin VG, Marshakov VN, Rashkovskiy SA |
422 - 433 |
Experimental study and physical analysis of flame geometry in pool fires under relatively strong cross flows Lin YJ, Delichatsios MA, Zhang XL, Hu LH |
434 - 440 |
Semi-valveless pulse detonation cycle at a kilohertz-scale operating frequency Matsuoka K, Taki H, Kawasaki A, Kasahara J, Watanabe H, Matsuo A, Endo T |
441 - 445 |
Hypergolicity evaluation and prediction of ionic liquids based on hypergolic reactive groups Sun CG, Tang SK, Zhang XW |
446 - 456 |
The stochastic fields method applied to a partially premixed swirl flame with wall heat transfer Fredrich D, Jones WP, Marquis AJ |
457 - 465 |
Non-equilibrium effects on thermal ignition using hard sphere molecular dynamics Murugesan R, Sirmas N, Radulescu MI |
466 - 483 |
Auto-ignition control using an additive with adaptable chemical structure. Part I: Development of a kinetic model for 1,3-cyclohexadiene and 1,3,5-hexatriene combustion Schonborn A, Le MD, Fournet R, Glaude PA, Warth V, Sirjean B |
484 - 505 |
The uniform conditional state model for turbulent reacting flows Hendra GR, Bushe WK |
506 - 521 |
A conservative method for numerical solution of the population balance equation, and application to soot formation Liu AX, Rigopoulos S |
522 - 533 |
Detailed kinetic modeling of dimethoxymethane. Part II: Experimental and theoretical study of the kinetics and reaction mechanism Jacobs S, Dontgen M, Alquaity ABS, Kopp WA, Kroger LC, Burke U, Pitsch H, Leonhard K, Curran HJ, Heufer KA |
534 - 546 |
Vaporization model for arsenic during single-particle coal combustion: Model development Liu HM, Wang CB, Zhang Y, Zou C, Anthony E |