181 - 182 |
Second International Symposium on Hazards, Prevention, and Mitigation of Industrial Explosions - Eighth International Colloquium on Dust Explosions. Third Colloquium on Gas, Vapor, Hybrid and Fuel-Air Explosions - Preface Amyotte PR, Cashdollar KL |
183 - 199 |
Overview of dust explosibility characteristics Cashdollar KL |
201 - 208 |
Design of electrical equipment for areas containing combustible dust - Why dust standards cannot be extensively harmonised with gas standards Eckhoff RK |
209 - 219 |
Flammability limit measurements for dusts in 20-L and 1-m(3) vessels Going JE, Chatrathi K, Cashdollar KL |
221 - 228 |
Experimental research on explosibility at high initial pressures of combustible dusts Lazaro EC, Torrent JG |
229 - 242 |
Experimental mine and laboratory dust explosion research at NIOSH Sapko MJ, Weiss ES, Cashdollar KL, Zlochower IA |
243 - 251 |
Recent development of standardization of testing methods for dust explosion in Japan Nifuku M, Matsuda T, Enomoto H |
253 - 263 |
Safe handling of combustible powders during transportation, charging, discharging and storage Hoppe T, Jaeger N, Terry J |
265 - 275 |
Suppression of dust explosions by means of different explosive charges Klemens R, Szatan B, Gieras M, Wolanski P, Maranda A, Nowaczewski J, Paszula J |
277 - 289 |
A correlation for the impulse produced by vented explosions Tamanini F, Valiulis JV |
291 - 298 |
The influence of flow and turbulence on flame propagation through dust-air mixtures Krause U, Kasch T |
299 - 309 |
Modeling of maize starch explosions in a 12 m(3) silo Zhong SJ, Deng XF |
311 - 317 |
The possible use of solar panels as flame detectors of triggered barriers Lebecki K, Sliz J, Dyduch Z, Cybulski K |
319 - 326 |
Propagation of smouldering in dust deposits caused by glowing nests or embedded hot bodies Krause U, Schmidt M |
327 - 340 |
Flammability of methane, propane, and hydrogen gases Cashdollar KL, Zlochower IA, Green GM, Thomas RA, Hertzberg M |
341 - 347 |
Critical dimensions of holes and slots for transmission of gas explosions - Some preliminary results for propane/air and cylindrical holes Larsen O, Eckhoff RK |
349 - 359 |
Ignition of methane-air mixtures by laser heated small particles Dubaniewicz TH, Cashdollar KL, Green GM, Chaiken RF |
361 - 368 |
Predicting the maximum gas deflagration pressure over the entire flammable range Fan YY, Crawl DA |
369 - 376 |
Problems with identifying a standard procedure for determining K-G values for flammable vapors Mashuga CV, Crowl DA |
377 - 384 |
Flammability of gas mixtures containing volatile organic compounds and hydrogen Liekhus KJ, Zlochower IA, Cashdollar KL, Djordjevic SM, Loehr CA |
385 - 392 |
Determination of the critical flammability ratio (CFR) of refrigerant blends Girodroux F, Kusmierz A, Dahn CJ |
393 - 396 |
Energy estimation on ethylene sphere explosion Wang YP, Wang ZP, Wang CG, Hu B |
397 - 409 |
Venting of deflagrations: hydrocarbon-air and hydrogen-air systems Molkov V, Dobashi R, Suzuki M, Hirano T |
411 - 417 |
External pressures generated by vented gas and dust explosions Forcier T, Zalosh R |
419 - 431 |
Prediction of vapour cloud explosions using the SCOPE model Puttock JS, Yardley MR, Cresswell TM |
433 - 438 |
Comparison of blast curves from vapor cloud explosions Tang MJ, Baker QA |
439 - 442 |
Causes and lessons of five explosion accidents Zhang GS |