1 - 3 |
Obituary - Hoyt Clarke Hottel (1903-1998) Beer JM, Howard JB, Longwell JP, Sarofim AF |
4 - 31 |
Nitric oxide formation in dilute hydrogen jet flames: Isolation of the effects of radiation and turbulence-chemistry submodels Barlow RS, Smith NSA, Chen JY, Bilger RW |
32 - 58 |
Boron particle ignition and combustion at 30-150 ATM Foelsche RO, Burton RL, Krier H |
59 - 77 |
Characteristic flow modes of wake-stabilized jet flames in a transverse air stream Huang RF, Wang SM |
78 - 98 |
Kinetic model for the decomposition of DMMP in a hydrogen/oxygen flame Werner JH, Cool TA |
99 - 116 |
Interaction of a shock with a sinusoidally perturbed flame Khokhlov AM, Oran ES, Chtchelkanova AY, Wheeler JC |
117 - 139 |
Computational and experimental study of soot formation in a coflow, laminar diffusion flame Smooke MD, Mcenally CS, Pfefferle LD, Hall RJ, Colket MB |
140 - 154 |
Heterogeneous formation of nitrous oxide from char-bound nitrogen De Soete GG, Croiset E, Richard JR |
155 - 169 |
The role of Landau-Darrieus instability in large scale flows Helenbrook BT, Law CK |
170 - 188 |
A study of the gas-phase chemical structure during CO2 laser assisted combustion of HMX Tang CJ, Lee YJ, Kudva G, Litzinger TA |
189 - 205 |
Investigations of heat release, extinction, and time evolution of the flame surface, for a nonpremixed flame interacting with a vortex Renard PH, Rolon JC, Thevenin D, Candel S |
206 - 226 |
Dynamics and structure of dusty reacting flows: Inert particles in strained, laminar, premixed flames Egolfopoulos FN, Campbell CS |
227 - 243 |
Multi-phase model for ignition and combustion of boron particles Zhou W, Yetter RA, Dryer FL, Rabitz H, Brown RC, Kolb CE |
244 - 256 |
Simultaneous temperature and species measurements of the Glycidyl Azide Polymer (GAP) propellant during laser-induced decomposition Tang CJ, Lee YJ, Litzinger TA |
257 - 271 |
Scalar and velocity field measurements in a lifted CH4-air diffusion flame Watson KA, Lyons KM, Donbar JM, Carter CD |
272 - 290 |
Kinetics modeling of shock-induced ignition in low-dilution CH4/O-2 mixtures at high pressures and intermediate temperatures Petersen EL, Davidson DF, Nanson RK |
291 - 306 |
Detailed analysis of low-pressure premixed flames of CH4+O-2+N-2: A study of prompt-NO Gasnot L, Desgroux P, Pauwels JF, Sochet LR |
307 - 322 |
On the local stability of multiple solutions and oscillatory dynamics of spatially distributed flames Bui PA, Vlachos DG, Westmoreland PR |
323 - 339 |
Numerical simulation of deflagration-to-detonation transition: The role of shock-flame interactions in turbulent flames Khokhlov AM, Oran ES, Thomas GO |
340 - 350 |
PDF simulations of turbulent combustion incorporating detailed chemistry Saxena V, Pope SB |
351 - 361 |
Condensed-phase species distributions about Al particles reacting in various oxidizers Bucher P, Yetter RA, Dryer FL, Vicenzi EP, Parr TP, Hanson-Parr DM |
362 - 372 |
Comparison of non-fuel hydrocarbon concentrations measured in coflowing nonpremixed flames fueled with small hydrocarbons McEnally CS, Pfefferle LD |
373 - 383 |
On the oscillatory behavior of laminar spray diffusion flames: Experiment and theory Golovanevsky B, Levy Y, Greenberg JB, Matalon M |
384 - 393 |
On diffusion flame attachment near cold surfaces Wichman IS |
394 - 403 |
Heats of formation of HNO and some related species Anderson WR |
404 - 412 |
Instability-induced extinction of diffusion flames established in the stagnant mixing layer Sohn CH, Chung SH, Kim JS |
413 - 421 |
Droplet lasing spectroscopy applied to droplet stream flames Santangelo PJ, Kennedy IM |
422 - 428 |
Accounting for reactant consumption in the thermal explosion problem. Part IV. Numerical solution of the Arrhenius problem Shouman AR, El-Sayed SA |
429 - 434 |
Combustion of ammonium dinitramide Strunin VA, D'yakov AP, Manelis GB |
435 - 437 |
Soot formation in cracked flames Tait NP |
438 - 440 |
An experimental investigation of blow-out limits for hydrogen-diluent diffusion flames Shebeko YN, Korolchenko AY, Zamishevski ED, Trunev AV, Navzenya VY, Zaitzev AA |