| 317 - 326 |
Experimental study of opposed flow flame spread over wood fiber thermoplastic composite materials
Oladipo AB, Wichman IS |
| 327 - 339 |
Effects of a recess on cryogenic flame stabilization
Kendrick D, Herding G, Scouflaire P, Rolon C, Candel S |
| 340 - 358 |
Shock-tube and modeling study of methane pyrolysis and oxidation
Hidaka Y, Sato K, Henmi Y, Tanaka H, Inami K |
| 359 - 369 |
A lean flammability limit of polymethylmethacrylate particle-cloud in microgravity
Hanai H, Ueki M, Maruta K, Kobayashi H, Hasegawa S, Niioka T |
| 370 - 380 |
Ignition of fuel mixtures by standing acoustic waves
Vainshtein P, Gutfinger C, Pneuli D |
| 381 - 398 |
Kinetic modeling of a rich, atmospheric pressure, premixed n-heptane/O-2/N-2 flame
El Bakali A, Delfau JL, Vovelle C |
| 399 - 414 |
NOx formation in two-stage methane-air flames
Li SC, Williams FA |
| 415 - 430 |
A flow reactor study of neopentane oxidation at 8 atmospheres: Experiments and modeling
Wang SQ, Miller DL, Cernansky NP, Curran HJ, Pitz WJ, Westbrook CK |
| 431 - 444 |
Pressure change and transport process on flames formed in a stretched, rotating flow
Yamamoto K |
| 445 - 458 |
Predicting heats of formation of energetic materials using quantum mechanical calculations
Rice BM, Pai SV, Hare J |
| 459 - 468 |
Mechanisms for the formation of exhaust hydrocarbons in a single cylinder spark-ignition engine, fueled with deuterium-labeled ortho-, meta- and para-xylene
Gregory D, Jackson RA, Bennett PJ |
