441 - 442 |
Third International Symposium on Hazards, Prevention, and Mitigation of Industrial Explosions; Ninth International Colloquium on Dust Explosions. Fourth Colloquium on Gas, Vapor, Hybrid and Fuel-Air Explosions - Preface Dobashi R, Wolanski P |
443 - 447 |
Characteristics of the vibrating-mesh minimum ignition energy testing apparatus for dust clouds Choi KS, Yamaguma M, Kodama T, Joung JH, Takeuchi M |
449 - 453 |
Some aspects in testing and assessment of metal dust explosions Matsuda T, Yashima M, Nifuku M, Enomoto H |
455 - 461 |
Scaling parameters for vented gas and dust explosions Tamanini F |
463 - 467 |
Temperature profile across the combustion zone propagating through an iron particle cloud Sun JH, Dobashi R, Hirano T |
469 - 473 |
Numerical study of dust lifting in a channel with vertical obstacles Klemens R, Kosinski P, Wolanski P, Korobeinikov VP, Markov VV, Menshov IS, Semenov IV |
475 - 487 |
On the transient flow in the 20-liter explosion sphere Dahoe AE, Cant RS, Pegg MJ, Scarlett B |
489 - 494 |
Efficiency of triggered barriers in dust explosion suppression in galleries Lebecki K, Sliz J, Cybulski K, Dyduch Z |
495 - 502 |
Cornstarch explosion experiments and modeling in vessels ranged by height/diameter ratios Radandt S, Shi JY, Vogl A, Deng XF, Zhong SJ |
503 - 507 |
Particle image velocimetry (PIV) analysis of flame structure Otsuka T, Wolanski P |
509 - 514 |
Evaluation of the explosibility of malt grain dust based on static electrification during pneumatic transportation Nifuku M, Enomoto H |
515 - 520 |
Ignition wave in a two-velocity two-temperature multiphase mixture Fedorov AV, Gosteev YA |
521 - 526 |
Detonation wave modelling in typical bubble systems Fomin PA, Vasil'ev AA |
527 - 532 |
The influence of initial conditions on the propagation of smouldering fires in dust accumulations Krause U, Schmidt M |
533 - 538 |
Influence of physical properties of ammonium nitrate on the detonation behaviour of ANFO Miyake A, Takahara K, Ogawa T, Ogata Y, Wada Y, Arai H |
539 - 545 |
Combustion characteristics of asphalt and sodium compounds Iwata Y, Koseki H |
547 - 551 |
Incendiary characteristics of electrostatic discharge for dust and gas explosion Nifuku M, Katoh H |
553 - 557 |
Methodology for case studies of accidental gas explosions Hirano T |
559 - 565 |
Decomposing detonation and deflagration properties of ozone/oxygen mixtures Mizutani T, Matsui H, Sanui H, Yonekura M |
567 - 574 |
Unified correlations for vent sizing of enclosures at atmospheric and elevated pressures Molkov VV |
575 - 581 |
CREBCOM code system for description of gaseous combustion Efimenko AA, Dorofeev SB |
583 - 589 |
Evaluation of limits for effective flame acceleration in hydrogen mixtures Dorofeev SB, Kuznetsov MS, Alekseev VI, Efimenko AA, Breitung W |
591 - 596 |
Experimental study of flame acceleration and the deflagration-to-detonation transition under conditions of transverse venting Alekseev VI, Kuznetsov MS, Yankin YG, Dorofeev SB |
597 - 602 |
A study on the obstacle-induced variation of the gas explosion characteristics Oh KH, Kim H, Kim JB, Lee SE |
603 - 608 |
Experiments and numerical simulation on methane flame quenching by water mist Shimizu H, Tsuzuki M, Yamazaki Y, Hayashi AK |