1 - 16 |
Development of a two-part n-heptane oxidation mechanism for two stage combustion process in internal combustion engines Maroteaux F |
17 - 31 |
Large eddy simulation of explosion deflagrating flames using a dynamic wrinkling formulation Volpiani PS, Schmitt T, Vermorel O, Quillatre P, Veynante D |
32 - 44 |
Laser-diagnostic mapping of temperature and soot statistics in a 2-m diameter turbulent pool fire Kearney SP, Grasser TW |
45 - 64 |
Uncertainty quantification of a newly optimized methanol and formaldehyde combustion mechanism Olm C, Varga T, Valko E, Curran HJ, Turanyi T |
65 - 82 |
Turbulent jet ignition assisted combustion in a rapid compression machine Validi A, Schock H, Jaberi F |
83 - 93 |
CSP-based chemical kinetics mechanisms simplification strategy for non-premixed combustion: An application to hybrid rocket propulsion Ciottoli PP, Galassi RM, Lapenna PE, Leccese G, Bianchi D, Nasuti F, Greta F, Valorani M |
94 - 104 |
Impact of nitric oxide (NO) on n-heptane autoignition in a rapid compression machine Chen ZY, Zhang P, Yang Y, Brear MJ, He X, Wang Z |
105 - 113 |
Experimental study and analysis on the interaction between two slot-burner buoyant turbulent diffusion flames at various burner pitches Hu LH, Huang LL, Wang Q, Kuwana K |
114 - 128 |
Autoignition characteristics of oxygenated gasolines Lee C, Ahmed A, Nasir EF, Badra J, Kalghatgi G, Sarathy SM, Curran H, Farooq A |
129 - 139 |
A new diagnostic for hydrocarbon fuels using 3.41-mu m diode laser absorption Wang SK, Parise T, Johnson SE, Davidson DF, Hanson RK |
140 - 149 |
Direct estimation of edge flame speeds of lifted laminar jet flames and a modified stabilization mechanism Jeon MK, Kim NI |
150 - 165 |
Simultaneous imaging of fuel, OH, and three component velocity fields in high pressure, liquid fueled, swirl stabilized flames at 5 kHz Chterev I, Rock N, Ek H, Emerson B, Seitzman J, Jiang N, Roy S, Lee T, Gord J, Lieuwen T |
166 - 177 |
Approximate analytical solutions for temperature based transient mass flux and ignition time of a translucent solid at high radiant heat flux considering in-depth absorption Gong JH, Li YB, Wang JH, Li J, Chen YX, Jiang JC, Wang ZR |
178 - 192 |
A comprehensive experimental and kinetic modeling study of n-propylbenzene combustion Yuan WH, Li YY, Dagaut P, Wang YZ, Wang ZD, Qi F |
193 - 207 |
Lagrangian analysis of high-speed turbulent premixed reacting flows: Thermochemical trajectories in hydrogen-air flames Hamlington PE, Darragh R, Briner CA, Towery CAZ, Taylor BD, Poludnenko AY |
208 - 210 |
Violation of collision limit in recently published reaction models Chen DP, Wang K, Wang H |
211 - 219 |
The critical conditions for thermal explosion in a system heated at a constant rate Sanchez-Rodriguez D, Farjas J, Roura P |
220 - 235 |
Flamelet regime characterization for non-premixed turbulent combustion simulations Chan WL, Ihme M |
236 - 246 |
Ignition of a hydrogen-air mixture by low voltage electrical contact arcs Shekhar R, Boeck LR, Uber C, Gerlach U |
247 - 262 |
Effects of the equivalence ratio on turbulent flame-shock interactions in a confined space Wei HQ, Zhao JF, Zhou L, Gao DZ, Xu ZL |
263 - 276 |
Shock tube study and RRKM calculations on thermal decomposition of 2-chloroethyl methyl ether Parandaman A, Rajakumar B |
277 - 298 |
An investigation of a turbulent spray flame using Large Eddy Simulation with a stochastic breakup model Jones WP, Marquis AJ, Noh D |
299 - 310 |
Numerical analysis of laminar methane-air side-wall-quenching Ganter S, Heinrich A, Meier T, Kuenne G, Jainski C, Rissmann MC, Dreizler A, Janicka J |
311 - 324 |
Raman/LIPF data of temperature and species concentrations in swirling hydrogen jet diffusion flames: Conditional analysis and comparison to laminar flamelets Cheng TS, Chen JY, Pitz RW |
325 - 334 |
Measurement of the size distribution, volume fraction and optical properties of soot in an 80 kW propane flame Backstrom D, Gunnarsson A, Gall D, Pei XY, Johansson R, Andersson K, Pathak RK, Pettersson JBC |