103 - 103 |
Fifth International Symposium on Hazards, Prevention, and Mitigation of Industrial Explosions: Eleventh International Colloquium on Dust Explosions & Sixth Colloquium on Gas, Vapor, Liquid and Hybrid Explosions - Preface Amyotte PR |
104 - 120 |
A few fundamental aspects about ignition and flame propagation in dust clouds Proust C |
121 - 129 |
The nature and large eddy simulation of coherent deflagrations in a vented enclosure-atmosphere system Molkov V, Makarov D, Puttock J |
130 - 134 |
Measurement of turbulent burning velocities by means of the open tube method Schneider H |
135 - 141 |
Velocity and number density profiles of particles across upward and downward flame propagating through iron particle clouds Sun JH, Ritsu D, Toshisuke H |
142 - 148 |
Explosibility parameters for mixtures of pulverized fuel and ash Amyotte PR, Khan FI, Basu A, Dastidar AG, Dumeah RK, Erving WL |
149 - 153 |
Detailed analysis of flame propagation during dust explosions by UV band observations Dobashi R, Senda K |
154 - 160 |
Initiation of dust explosions by electric spark discharges triggered by the explosive dust cloud itself Randeberg E, Eckhoff RK |
161 - 173 |
Solid inertants and their use in dust explosion prevention and mitigation Amyotte PR |
174 - 180 |
Explosibility of fine graphite and tungsten dusts and their mixtures Denkevits A, Dorofeev S |
181 - 186 |
Ignitability assessment of shredder dusts of refrigerator and the prevention of the dust explosion Nifuku M, Tsujita H, Fujino K, Takaichi K, Barre C, Paya E, Hatori M, Fujiwara S, Horiguchi S, Sochet I |
187 - 193 |
Mathematical modelling of dust-air mixture explosion suppression Oleszczak P, Klemens R |
194 - 199 |
Experiments on the influence of pre-ignition turbulence on vented gas and dust explosions Scheid M, Geissler A, Krause U |
200 - 209 |
Dynamics of dust dispersion from the layer behind the propagating shock wave Klemens R, Zydak P, Kaluzny M, Litwin D, Wolanski P |
210 - 217 |
Simulation of dust explosions in complex geometries with experimental input from standardized tests Skjold T, Arntzen BJ, Hansen OR, Storvik IE, Eckhoff RK |
218 - 226 |
A numerical model to simulate smouldering fires in bulk materials and dust deposits Krause U, Schmidt M, Lohrer C |
227 - 232 |
Use of detailed kinetic mechanisms for the prediction of autoignitions Buda F, Glaude PA, Battin-Leclerc F, Porter R, Hughes KJ, Griffiths JF |
233 - 237 |
Ignition of a dust layer by a constant heat flux-heat transport in the layer Dyduch Z, Majcher B |
238 - 244 |
Initiation of strong reactive shocks and detonation by traveling ignition pulses Frolov SM |
245 - 249 |
Gas explosions caused by gasification of condensed phase combustibles Hirano T |
250 - 262 |
Effect of the concentration distribution on the gaseous deflagration propagation in the case of H-2/O-2 mixture Sochet I, Gillard P, Guelon F |
263 - 270 |
Determination of explosion parameters of methane-air mixtures in the chamber of 40 dm(3) at normal and elevated temperature Gieras M, Klemens R, Rarata G, Wolanski P |
271 - 279 |
Study of the propagation of kerosene explosions inside a partitioned vessel Pascaud JM, Gillard P |
280 - 287 |
Vented confined explosions in Stramberk experimental mine and AutoReaGas simulation Janovsky B, Selesovsky P, Horkel J, Vejsa L |
288 - 291 |
Process of accidental explosions at a refuse derived fuel storage Gao LJ, Hirano T |
292 - 297 |
Experimental simulation of airbag deployment for pipeline closing Seiler F, Ende H, Hensel D, Srulijes J |
298 - 305 |
Functional safety concept for hazardous systems and new challenges Kosmowski KT |