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PHYSICAL AND MATHEMATICAL MODELLING OF COAL SELF-IGNITION PROCESS
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Výzkum možností predikce vzniku záparů a následného samovznícení hnědouhelných paliv (Rešeršní studie dosavadních poznatků a zkušeností) Moni 2011
Vliv vnějších podmínek na vznícení a hoření sušeného uhlí. Výzkumná zpráva Černý 1969
2. Celostátní konference Samovolné vzněcování uhlí v teorii a praxi Měření teplot a šíření záparů v hromadách prachového hnědého uhlí Dušák 1989
Journal of Loss Prevention in the Process Industries Assessing the self-heating behaviour of Callide coal using a 2-meter column. Beamish 15 385 2002
International Journal of Heat and Mass Transfer Two-dimensional Natural-Convection and Conduction in a Packed-Bed Containing a Hot-spot and Its Relevance to theTransport of Air in a Coal Dump. Young 29 331 1986
Proceedings of the 6th Australasian Coal Operators Conference, APR 26- 28, 2005 Brisbane, Australia, Australasian Institute of Mining And Metallurgy Publication Series Results of self-heating tests of Australian coals conducted in a 16 m(3) reactor. Clarkson 201
Energy Sources Part A-Recovery Utilization And Environmental Effects Statistical Modeling of Spontaneous Combustion in Industrial-Scale Coal Stockpiles. Ozdeniz 31 1368 2009
Journal of Coal Quality Weathering of stockpiled coals and the resulting losses of calorific value Miranda 13 104 1994
Fuel Model predictions and experimental results on self-heating prevention of stockpiled coals. Fierro 80 125 2001
Progress in Energy and Combustion Science. Self-heating of coal and related materials: Models, application and test methods. Carras 20 1 1994
Fuel A model for the spontaneous heating of coal. Schmal 64 963 1985
South African Journal of Science Modelling the spontaneous combustion of coal. Brooks 84 874 1988
Combustion and Flame Effect of particle size on the spontaneous heating of a coal stockpile. Akgun 99 137 1994
Fuel 75 Low-temperature oxidation of coal 3. Modeling spontaneous combustion in coal stockpiles. Krishnaswamy 353 1996
Fuel Self-ignition characteristics of coal stockpiles: theoretical prediction from two-dimensional unsteady-state model Agkun 80 409 2001
Journal of Loss Prevention in the Process Industries Model predictions on selfheating and prevention of stockpiled coals. Krajčiová 17 205 2004
Journal of Loss Prevention in the Process Industries Modeling of spontaneous heating in a large-scale coal chamber. Yuan 22 426 2009
Fuel Effect of longwall face advance rate on spontaneous heating process in the gob area – CFD modelling. Taraba 90 2790 2011
In Sb. XVV. Medzinárodná vedecká konferencia “Aplikácia experimentálnych a numerických metód v mechanike tekutín a energetike“, Žilina Mathematical model of the low-temperature oxidation of coal in coal stockpiles and dumps. Bojko 23 2010
Výzkum možností predikce vzniku záparů a následného samovznícení hnědouhelných paliv (Rešeršní studie dosavadních poznatků a zkušeností) Moni 2011
Vliv vnějších podmínek na vznícení a hoření sušeného uhlí. Výzkumná zpráva Černý 1969
2. Celostátní konference Samovolné vzněcování uhlí v teorii a praxi Měření teplot a šíření záparů v hromadách prachového hnědého uhlí Dušák 1989
Journal of Loss Prevention in the Process Industries Assessing the self-heating behaviour of Callide coal using a 2-meter column. Beamish 15 385 2002
International Journal of Heat and Mass Transfer Two-dimensional Natural-Convection and Conduction in a Packed-Bed Containing a Hot-spot and Its Relevance to theTransport of Air in a Coal Dump. Young 29 331 1986
Proceedings of the 6th Australasian Coal Operators Conference, APR 26- 28, 2005 Brisbane, Australia, Australasian Institute of Mining And Metallurgy Publication Series Results of self-heating tests of Australian coals conducted in a 16 m(3) reactor. Clarkson 201
Energy Sources Part A-Recovery Utilization And Environmental Effects Statistical Modeling of Spontaneous Combustion in Industrial-Scale Coal Stockpiles. Ozdeniz 31 1368 2009
Journal of Coal Quality Weathering of stockpiled coals and the resulting losses of calorific value Miranda 13 104 1994
Fuel Model predictions and experimental results on self-heating prevention of stockpiled coals. Fierro 80 125 2001
Progress in Energy and Combustion Science. Self-heating of coal and related materials: Models, application and test methods. Carras 20 1 1994
Fuel A model for the spontaneous heating of coal. Schmal 64 963 1985
South African Journal of Science Modelling the spontaneous combustion of coal. Brooks 84 874 1988
Combustion and Flame Effect of particle size on the spontaneous heating of a coal stockpile. Akgun 99 137 1994
Fuel 75 Low-temperature oxidation of coal 3. Modeling spontaneous combustion in coal stockpiles. Krishnaswamy 353 1996
Fuel Self-ignition characteristics of coal stockpiles: theoretical prediction from two-dimensional unsteady-state model Agkun 80 409 2001
Journal of Loss Prevention in the Process Industries Model predictions on selfheating and prevention of stockpiled coals. Krajčiová 17 205 2004
Journal of Loss Prevention in the Process Industries Modeling of spontaneous heating in a large-scale coal chamber. Yuan 22 426 2009
Fuel Effect of longwall face advance rate on spontaneous heating process in the gob area – CFD modelling. Taraba 90 2790 2011
In Sb. XVV. Medzinárodná vedecká konferencia “Aplikácia experimentálnych a numerických metód v mechanike tekutín a energetike“, Žilina Mathematical model of the low-temperature oxidation of coal in coal stockpiles and dumps. Bojko 23 2010
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