1 - 12 |
A modified CCW theory for detonation waves Li H, Ben-Dor G |
13 - 26 |
Control of NOx emissions in confined flames by oscillations Poppe C, Sivasegaram S, Whitelaw JH |
27 - 37 |
The solubility of oxygen in liquid iron oxide during the combustion of iron rods in high-pressure oxygen Steinberg TA, Kurtz J, Wilson DB |
38 - 52 |
Modelling the temporal evolution of a reduced combustion chemical system with an artificial neural network Blasco JA, Fueyo N, Dopazo C, Ballester J |
53 - 65 |
Numerical study of unsteady turbulent premixed combustion: Application to flashback simulation Thibaut D, Candel S |
66 - 78 |
Nitric oxide emissions from laminar diffusion flames: Effects of air-side versus fuel-side diluent addition Feese JJ, Turns SR |
79 - 91 |
A model for calculating heat release in premixed turbulent flames Schmid HP, Habisreuther P, Leuckel W |
92 - 105 |
Counterflow spray combustion modeling with detailed transport and detailed chemistry Gutheil E, Sirignano WA |
106 - 118 |
An induction parameter model for shock-induced hydrogen combustion simulations Clifford LJ, Milne AM, Turanyi T, Boulton D |
119 - 134 |
Optimization of rate coefficients for simplified reaction mechanisms with genetic algorithms Polifke W, Geng WQ, Dobbeling K |
135 - 146 |
Stochastic modeling of CO and NO in premixed methane combustion Cannon SM, Brewster BS, Smoot LD |
147 - 163 |
A numerical study of a two-dimensional H-2-O-2-Ar detonation using a detailed chemical reaction model Oran ES, Weber JW, Stefaniw EI, Lefebvre MH, Anderson JD |
164 - 180 |
Inhibition of premixed methane-air flames by fluoroethanes and fluoropropanes Linteris GT, Burgess DR, Babushok V, Zachariah M, Tsang W, Westmoreland P |
181 - 197 |
A kinetic model of carbon burnout in pulverized coal combustion Hurt R, Sun JK, Lunden M |
198 - 211 |
Finite rate chemistry and NO mole fraction in non-premixed turbulent flames Neuber A, Krieger G, Tacke M, Hassel E, Janicka J |
212 - 223 |
Accounting for reactant consumption in the thermal explosion problem - III. Criticality conditions for the Arrhenius problem Shouman AR, El-Sayed SA |
224 - 235 |
The normal detonation shock velocity curvature relationship for materials with nonideal equation of state and multiple turning points Stewart DS, Yao J |
236 - 241 |
Laser-induced fluorescence of CF2 from a CH4 flame and an H-2 flame with addition of HCFC-22 and HFC-134a Su Y, Gu YW, Reck GP, Rothe EW, Francisco JS |
242 - 248 |
An experimental determination of the laminar burning velocities and extinction stretch rates of benzene/air flames Wang CH, Ueng GJ, Tsay MS |
249 - 257 |
Emissions reduction and pyrolysis gas destruction in an acoustically driven dump combustor Pont G, Cadou CP, Karagozian AR, Smith OI |
258 - 263 |
Combustion rate of burning graphite in a stagnation flow of water vapor Makino A, Fujizaki H, Araki N |
264 - 270 |
Soot formation in counterflow ethylene diffusion flames from 1 to 2.5 atmospheres Du DX, Wang H, Law CK |
271 - 273 |
On droplet enhancement of the burning velocity of laminar premixed spray flames Greenberg JB, Silverman I, Tambour Y |
274 - 276 |
The contribution to char burnout from gasification by H2O and CO2 during pulverized-coal flame combustion Stanmore BR, Visona SP |