273 - 291 |
Numerical evaluation of equivalence ratio measurement using OH* and CH* chemiluminescence in premixed and non-premixed methane-air flames Panoutsos CS, Hardalupas Y, Taylor AMKP |
292 - 301 |
Laminar burning velocities at high pressure for primary reference fuels and gasoline: Experimental and numerical investigation Jerzembeck S, Peters N, Pepiot-Desjardins P, Pitsch H |
302 - 309 |
Enhanced reactivity of nano-B/Al/CuO MIC's Sullivan K, Young G, Zachariah MR |
310 - 321 |
Premixed flames in stagnating turbulence Part VI. Predicting the mean density and the permitted rates of strain for impinging reactant streams Bray K, Champion M, Libby PA |
322 - 333 |
Combustion characteristics of boron nanoparticles Young G, Sullivan K, Zachariah MR, Yu K |
334 - 347 |
Flamelet mathematical models for non-premixed laminar combustion Carbonell D, Perez-Segarra CD, Coelho PJ, Oliva A |
348 - 361 |
Chemiluminescence of BO2 to map the creation of thermal NO in flames Maligne D, Cessou A, Stepowski D |
362 - 373 |
Effects of CO addition on the characteristics of laminar premixed CH4/air opposed-jet flames Wu CY, Chao YC, Cheng TS, Chen CP, Ho CT |
374 - 384 |
Investigations on the self-excited oscillations in a kerosene spray flame Garcia MD, Mastorakos E, Dowling AP |
385 - 395 |
Large eddy simulation of soot formation in a turbulent non-premixed jet flame El-Asrag H, Menon S |
396 - 404 |
Autoignited laminar lifted flames of propane in coflow jets with tribrachial edge and mild combustion Choi BC, Kim KN, Chung SH |
405 - 416 |
Visualization of the unburned gas flow field ahead of an accelerating flame in an obstructed square channel Johansen CT, Ciccarelli G |
417 - 428 |
Reduction of very large reaction mechanisms using methods based on simulation error minimization Nagy T, Turanyi T |
429 - 438 |
Operational characteristics of a parallel jet MILD combustion burner system Szego GG, Dally BB, Nathan GJ |
439 - 446 |
Effects of position and frequency of obstacles on turbulent premixed propagating flames Hall R, Masri AR, Yaroshchyk R, Ibrahim SS |
447 - 459 |
Hysteresis and transition in swirling nonpremixed flames Tummers MJ, Hubner AW, van Veen EH, Hanjalic K, van der Meer TH |
460 - 466 |
Characteristics of liquid ethanol diffusion flames from mini tube nozzles Chen J, Peng XF, Yang ZL, Cheng J |
467 - 476 |
Mixture fraction analysis of combustion products in the upper layer of reduced-scale compartment fires Ko GH, Hamins A, Bundy M, Johnsson EL, Kim SC, Lenhert DB |
477 - 483 |
A numerical study on the effect of hydrogen/reformate gas addition on flame temperature and NO formation in strained methane/air diffusion flames Guo HS, Neill WS |
484 - 493 |
Effects of fuel type and equivalence ratios on the flickering of triple flames Sahu KB, Kundu A, Ganguly R, Datta A |
494 - 504 |
The combustion chemistry of a fuel tracer: Measured flame speeds and ignition delays and a detailed chemical kinetic model for the oxidation of acetone Pichon S, Black G, Chaumeix N, Yahyaoui M, Simmie JM, Curran HJ, Donohue R |
505 - 521 |
Modeling of autoignition and NO sensitization for the oxidation of IC engine surrogate fuels Anderlohr JM, Bounaceur R, Da Cruz AP, Battin-Leclerc F |
522 - 530 |
An embedded upward flame spread model using 2D direct numerical simulations Xie W, DesJardin PE |
531 - 538 |
An elementary model for the transition from conductive to penetrative burning in gas-permeable explosives Kagan L, Sivashinsky G |
539 - 542 |
Effect of velocity inflow conditions on the stability of a CH4/air jet-flame Troiani G |
543 - 546 |
Burn time of aluminum nanoparticles: Strong effect of the heating rate and melt-dispersion mechanism Levitas VI |