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Literatur
Abbott M. B., Basco D. (1989) Computational Fluid Dynamics, An Introduction for Engineers. Longman House, Burnt Mill, Harlow, UK: Longman Scientific & Technical, 1989, ISBN 0-582-01365-8
Arscott J. A., Gibb J. and Jenner R. (1973) The application of N-E diffusion theory and Monte-Carlo methods to predict the heat transfer performance of a 500 MW power station boiler from isothermal data, in: Proceedings Combustion Institute European Symposium 674–679
Baerns M., Hofmann H., Renken A. (1987), Chemische Reaktionstechnik, Stuttgart Thieme Verlag
Banin V. E, Commissaris F. A. C. M., Moors J. H. J., Veefkind A. (1997a) Kinetic Study of Pulverized Coal Combustion at High Pressure Using a Shock Tube. Combustion and Flame, 108(1–2):1–8
Banin V. E., Moors J. H. J., Veefkind A. (1997b) Kinetic Study of High-Pressure Pulverized Coal Char Combustion: Experiment and Modelling. Fuel, 76(10):945–949
Baum M. M., Street P. J. (1971) Predicting the Combustion Behaviour of Coal Particles, Comb. Sci. Technology, 3, 231–243
Benim A. C. (1988) A finite Element Solution of Radiative Heat Transfer in Participating Media Utilizing the Moment Method, Computer Methods in applied Mechanics and Engineering 67 (1988) 1–14
Benim A. C. (1990), Finite Element Analysis of confined Turbulent Swirling Flows, Int. Journ. for Num. Methods in Fluids, vol. 11 697–717
Benim A. C., Epple B., Krohmer B. (2005) Modelling of pulverised coal combustion by an Eulerian-Eulerian two-phase flow formulation, International Journal of Progress in Computational Fluid Dynamics, vol. 5, no. 6, pp. 345–361
Bews L. M., Hayhurst A. N., Richardson S. M., Talor S. G. (2001) The Order, Arrhenius Parameters and Mechanism of the Reaction Between Gaseous Oxygen and Solid Carbon, Combust. Flame 124, 231–245
Bhatia S. K., Perlmutter D. D. (1980) A Random Pore Model for Fluid-Solid Reactions: I. Isothermal, Kinetic Control. American Istitute of Chemical Engineers Journal, 26(3):379–386
Bhatia S. K., Gupta J. S. (1992) Mathematical Modelling of Gas-Solid Reactions: Effect of Pore Structure. Reviews in Chemical Engineering, 8:177–258
Boysan F., Ayers W. H. Swithenbank J. (1982) A fundamental mathematical modeling approach to cyclone design, Trans. IchemE, 60, 222–230
Chelliah H., Miller F., Pantano D., Kasimov A. (1999) Heterogeneous Combustion of Porous Graphite in Normal and Microgravity, Fifth International Microgravity Combustion Workshop, Cleveland Ohio, May 18–20, 233–236
Crowe C. (1979) „Gas-particle flow,“ in Pulverized-Coal Combustion and Gasification, L. D. Smoot and D. T. Pratt, Eds. New York and London: Plenum Press, 1979, ch. 6, pp. 107–119, ISBN 0-306-40084-7
Crowe C., Smoot L. (1979) Multicomponent conservation equations, in Pulverized-Coal Combustion and Gasification, L. D. Smoot and D. T. Pratt, Eds. New York and London: Plenum Press, 1979, ch. 2, pp. 15–54, ISBN 0-306-40084-7
Delisle A. J., Miller F. J., Chelliah H. K. (2003) Combustion of Porous Graphite Particles in Oxygen Enriched Air, Seventh International Microgravity Combustion Workshop, Cleveland Ohio, June 3–6, 9–12
De Marco, A.G., Loockwood, F.C. (1975) A New Flux Model for the Calculation of Radiation in Furnaces. La rivista die combustibili, Vol. 29, No. 5–6, pp. 184–196
Dryer F., Glassmann I. (1988) High-temperature oxidation of CO and CH4,” Combustion and Flame, vol. 73, pp. 233–249
Durst F., Milojevic D., Schönung B. (1982) Eulerian and Lagragian Predictions of Particulate Two-Phase Flows; a numerical Study, Appl. Math. Modell, 9, 101–115
Erickson T. A., D.K. Ludlow D. K., S.A. Benson S. A. (1991) Intersaction of Sodium, Sulfur, and Silicia During Coal Combustion, Energy & Fuels 5, 539–547
Essenhigh R. H. (1981) Fundamentals of Coal Combustion. In M.A. Elliot, editor, Chemistry of Coal Utilization, chapter 19, pages 1153–1312. John Wiley and Sons
Essenhigh R. H. (1988) An Integration Path for the Carbon-Oxygen Reaction with Internal Reaction. Proceedings of the Combustion Institute, 22:89–96
Essenhigh R. H. (1994) Influence of Initial Particle Density on the Reaction Mode of Porous Carbon Particles. Combustion and Flame, 99:269–279
Field M. (1969) Rate of combustion of size-grate fractions of char from a low rank coal between 1200–2000 K, Combustion and Flame, vol. 13, pp. 237–252
Field M. A., Gill D. W., Morgan B. B., Hawskley P. G. W. (1967), Combustion of Pulverized Coal, pp 189–192 und 329–345, The British Coal Utilization Research Assoc., Leatherland
Fiveland, W.A. (1988). Three-Dimensional Radiative Heat Transfer Solutions by the Discrete Ordinates Method. AIAA J. Thermophysics, Vol. 2, No. 4, pp. 309–316
Fletcher T. (1993) Swelling properties of coal chars during rapid pyrolysis and combustion, Fuel, vol. 72, no. 11, pp. 1485–1495
Fletcher T. H., Kerstein A. R., Grant D. M., Pugmire R. J. (1990) Chemical model for devolatilization. 2. Temperature and heating rate effects on product yields, Energy & Fuels, vol. 4, pp. 54–60
Fletcher T., Solum M. S., Pugmire R., Grant D. M. (1992) Chemical structure of char in the transition from devolatilization to combustion, Energy & Fuels, vol. 6, pp. 643–650
Förtsch D. (2003) A kinetic model of pulverised coal combustion for computational fluiddynamics — Ein kinetisches Modell der Kohlenstaubverbrennung für die numerische Strömungsberechnung,” Selbstverlag IVD, Universität Stuttgart, Inventar-Nr. 1/4562
Förtsch D., Kluger F., Schnell U. (1998) A kinetic model for the prediction of NO emissions from staged combustion of pulverized coal, in Twenty Seventh Symposium (International) on Combustion/The Combustion Institute, Pittsburgh, 1998, pp. 3037–3044
Förtsch D., Essenhigh R. H., Froberg R. W., Schnell U., Hein K. R. G. (2000) Influence of the Density Profile on the Combustion Characteristics of Carbon: A Theoretical Study. Proceedings of the Combustion Institute, 28:2251–2260
Gavalas G. R. (1980) „A random capillary model with application to char gasification at chemically controlled rates,“ American Institute of Chemical Engineers Journal, vol. 26, pp. 577–585
Gavalas G. R. (1981) Analysis of Char Combustion Including the Effect of Pore Enlargement. Combustion Science and Technology, 24:197–210
Gill A. (2001) CFD-Simulation von Verbrennungsprozessen, Proceedings of the VDI-Workshop Computersimulation von Strömungen und Wärmetransportprozessen in der Energietechnik, Paper 18, VDI Düsseldorf
Glassmann I. (1996) Combustion, 3rd ed. San Diego, CA: Academic Press, 1996, ISBN 0-122-85852-2. BIBLIOGRAPHY 40
Görner, K. (1991) Technische Verbrennungssysteme. Springer-Verlag Berlin/Heidelberg/New York
Gosman A. D. and Lockwood F. C. (1973) Incorporation of a flux model for radiation into a fiuite-difference procedure for furnace calculations, in: Proceedings 14th International Symposium on combustion, PA 661–671
Grant D. M., Pugmire R. J., Fletcher T. H., Solum M. S., Kerstein A. R. (1992) „Chemical model for devolatilization. 3. Use of 13C NMR data to predict effects of coal type,“ Energy & Fuels, vol. 6, pp. 414–431
Gray D., Cogoli J. G., Essenhigh R. H. (1974) „problems in pulverized coal and char combustion,“ Advances in Chemical Series, vol. 13, pp. 72–91
Hemsath, K. H. (1969) Zur Berechnung der Flammenstrahlung, Universität Stuttgart, Diss.
Hertzberg M., Zlochower I. A. (1990a) Devolatilization Rates and Intraparticle Wave Structure During the Combustion of Pulverized Coals and Polvmethylmethacrylate, Proc. Combust. Inst. 23, 1247–1255
Hertzberg M., Zlochower I. A. (1990b) Devolatilization Wave Structures and Temperatures for the Pyrolysis of Polymethylmethacrylate, Amonium Perchlorate, and Coal at Combustion Level Heat Fluxes, Proc. Combust. Inst. 23, 1247–1255
Hobbs, M. L., Radulovic, P. T., Smoot, L. D. (1993) Combustion and gasification of Coals in fixedbeds. Progr Energy Comb Sci 19:505
Hottel H. C., Sarofim A. F. (1967) Radiative Transfer, McGraw-Hill, New York
Hong J. (2000) Modeling Char Oxidation as a Function of Pressure Using an Intrinsic Langmuir Rate Equation. PhD thesis, Brigham Young University
Hurt R., Sun J., Lunden M. (1998) „A kinetic model of carbon burnout in pulverized coal combustion,“ CaF, vol. 113, no. 1–2, pp. 181–197
Ishida M., Wen C. Y. (1971) Comparison of Zone-Reaction Model and Unreacted-Core Shrinking Model in Solid-Gas Reactions-I. Isothermal Analysis. Chemical Engineering Science, 26:1031 ff.
Jones W., Lindstedt R. (1972) „Global reaction schemes for hydrocarbon combustion,“ Proceedings of the Combustion Institute, vol. 14, pp. 987–1003
Katalambula H. H., Hayashi J., Chiba T. (1997) Dependence of Single Coal Particle Ignition Mechanism on the Surrounding Volatile Matter Cloud, Energy & Fuels 11, 1033–1039
Knaus H., Schneider R., Han X., Ströhle J., Schnell U., Hein K. (1997) „Comparison of different radiation heat transfer models in coal-fired utility boiler simulations using boundary fitted and cartesian grids,“ in Proceedings of the 4th Internat. Conference on Technologies and Combustion for a Clean Environment, Lisbon, July 1997, pp. 1–8
Knaus H., Schnell U., Hein K. R. G. (2001a) Evaluation of the 3D-furnace simulation code AIOLOS by comparing CFD predictions of gas compositions with in-furnace measurements in a 210MW coal-fired utility boiler, Progress in Computational Fluid Dynamics, Vol. 1, Nos 1/2/3, pp. 62–69
Knaus H., Schnell U., Hein K. R. (2001b) „On the modelling of coal combustion in a 550 MWel coal-fired utility boiler,“ International Journal of Progress in Computational Fluid Dynamics, vol. 1, no. 4, pp. 194–207
Kobayashi H., Howard J. B., Sarofim A. F. (1976) „Coal devolatilization at high temperatures“, Sixteenth Symposium (International) on Combustion: at the Massachusets Institute of Technology, Cambridge, Massachusetts, August 1976
Kuo K. K. (2005) Principles of Combustion. Hoboken, New Jersey: John Wiley & Sons, Inc., 2005, iSBN 0-471-04689-2
Lacey D. T., Bowen J. H., and Basden K. S. (1965) Theory of non-catalytic gassolid reactions. Industrial and Engineering Chemistry Fundamentals, 4:275 ff.
Laurendeau N. M. (1978), Heterogeneous Kinetics of Coal and Char Gasification and Combustion, Prog. Energy Combust. Sci. 4, 221–270
Langmuir I. (1915), „Chemical reactions at low pressure,“ A Journal of the American Chemical Society, vol. 37, pp. 1139–1366
Lee J. C., Yetter R. A., Dryer F. L. (1995) Combustion and Flame 101:387
Lockwood F. C., Shah N. G. (1981) A New Radiation Solution Method for Incorporation in General Combustion Prediction Procedures. 18th Symp. (Int.) on Comb., The Comb. Inst., pp 1405–1414
Magel H., Schnell U., Hein K. (1996) „Simulation of detailed chemistry in a turbulent combustor flow,“ in Twenty-sixth Symposium (International) on Combustion/The Combustion Institute, 1996, pp. 67–74
Maloney D. J., Monazam E. R., Woodruff S. D., Lawson L. O. (1991) Measurements and Analysis of Temperature Histories and Size Changes of Single Carbon and Coal Particles During the Early Stages of Heating and Devolatilization, Combust. Flame 84, 210–220
Matthews K. J. (1976) Gasel: a two-dimensional flame prediction model, Rept. No. R/M/R232, Central Electricity Generating Board (CEGB)
Müller-Erlwein (1998) Chemische Reaktionstechnik, B. G. Teubner Stuttgart Leipzig
Özisik M.N. (1973) Radiative Transfer and Interactions with Conduction and Convection. John Wiley & Sons, New York, Chap. 9, pp. 343–346
Olson S. L., Kashiwagi T., Fujita O., Kikuchi M., Ito K. (2001) Experimental Observation of Spot Radiative ignition and Subsequent Three-Dimensional Flame Spread over Thin Cellulose Fuels, Combust. Flame 125, 852–864
Papula L. (2001) Mathematik für Ingenieure und Naturwissenschaftler, Bd. 2, 10. Auflage, Vieweg-Verlag Braunschweig Wiesbaden
Peters A., Weber R. (1997) Mathematical modeling of a 2.4 MW swirling pulverized coal flame, Combust. Sci. and Tech., vol. 122, pp. 131–182
Phuoc T. X., Mathur M. P., Ekmann J. M. (1993) High-Energy Nd-Yag Laser Ignition of Coals: Experimental Observations, Combust. Flame 93, 19–30
Raithby G. D., Chui E. H. (1990) A Finite Volume Method for Precicting a Radiant Heat Transfer in Enclosures with Participating Media. J. of Heat Transfer, Vol. 112, pp. 415–423
Reade W., Morris K., Hecker W. (1995) „Modeling the effects of burnout on high temperature char oxidation,“ Coal Science, pp. 639–642
Richter W., Bauersfeld G. (1974) Radiation models for use in complete mathematical furnace models, in: Proceedings International Flame Research Foundation (IFRF), 3rd Members Conference, IJmuiden, The Netherlands Ch. II.
Richter, W., Heap, M. (1981). A Semistochastic Method for the Prediction of Radiative Heat Transfer in Combustion Chambers, Western States Section/The Comb. Inst., 1981 Spring Meeting, paper 81–17
Risio B., Schnell U., Hein K., Förtsch D., Bundschuh A., Klinge T., and Derichs W. (1998) „Industrial-scale validation of the 3D-furnace simulation code AIOLOS,“ PVP, vol. 377-2, pp. 93–99
Risio B., Blum F., Berreth A., Schnell U., Hein K. (2003) „Evolutionäre Algorithmen als innovative Optimierungswerkzeuge für die Kraftwerkstechnik,“ VDI-Berichte Nr. 1750, vol. 377-2, pp. 663–668, 2003, ISBN 3-18-091750-4
Sampath R., Maloney D. J., Zondolo J. W., Woodruff S. D., Yeboah Y. D. (1996) Measurements of Coal Particle Shape, Mass, and Temperature Histories: Impact of Particle Irregularity on Temperature Predictions and Measurements, Proc. Combust. Inst. 26, 3179–3188
Sampath R., Maloney D. J., Zondolo J. W. (1998) Evaluation of Thermophysical and Thermochemical Heat Requirements for Coals at Combustion Level Heat Fluxes, Proc. Combust. Inst. 27, 2915–2923
Schröder, K. (1966) Große Dampfkraftwerke, Band 3 Teil A Die Kraftwerksausrüstung, Springer Verlag Berlin Heidelberg New York
Siddall R. G. (1972) Flux methods for the analysis of radiant heat transfer, in: Proceedings 4th Symposium on Flames in Industry, Paper 16, Institute of Fuel, London
Simons G. A. (1979) The Structure of Coal Char: Part II. Pore Combination. Combustion Science and Technology, 19:227–235.
Simons G. A. (1983) The Role of Pore Structure in Coal Pyrolysis and Gasification. Progress in Energy and Combustion Science, 9:269–290
Skinner F., Smoot L. (1979) Heterogeneous reactions of char and carbon, in Pulverized-Coal Combustion and Gasification, L. D. Smoot and D. T. Pratt, Eds. New York and London: Plenum Press, 1979, ch. 9, pp. 149–167, ISBN 0-306-40084-7
Smith I. W. (1982) The Combustion Rates of Coal Chars: A Review, Proc. Combust. Inst. 19, 1045–1065
Solomon P. R.; Hamblen, D. G.; Carangelo, R. M.; Serio, M. A.; Deshpande, G. V. (1987) A general model of coal devolatilization. ACS paper 58/WP No 26
Solomon P. R., Fletcher T., Pugmire R. (1993) „Progress in coal pyrolysis,“ Fuel, vol. 72, no. 5, pp. 587–597
Smoot, L. D. (1993) Fundamentals of coal combustion. Elsevier, Amsterdam/Oxford/New York
Sotirchos S. V., Burganos V. N. (1986) Intraparticle Diffusion and Char Combustion. Chemical Engineering Science, 41:2599–1609.
Spalding D. B. (1982) The Shadow Method of Particle Size Calculation in Two Phase Combustion, Proc. Of the Ninenteenth Symp. (Int.) on Combustion, The Comb. Institute Pittsburgh, 941–952
Speight, J. G.: (1994) The chemistry and technology of coal. Marcel Dekker, Amsterdam/New York
Suda T., Kitano K., Ikeda K. (2000), Study on Ignition Mechanism of Single Coal Particle under Micro gravity Condition, Space Forum 6, 259–267
Szekely J., and J.W. Evans J. W. (1970) A Structural Model for Gas-Solid Reactions With a Moving Boundary. Chemical Engineering Science, 26:1091–1107
Tognotti L., Longwell J. P., Sarofim A. F. (1990) The Products of the High Temperature Oxidation of a Single Char Particle in an Electrodynamic Balance, Proc. Combust. Inst. 23, 1207–1213
Tomeczek J. (1994), Coal Combustion, Krieger Publishing Company, Malabar, Florida
Turns, S. R. (1996) An introduction to combustion. McGraw-Hill, New York
Turns S. R. (2000) An Introduction to Combustion, Mc Graw Hill
Valix M. G., Harris D. J., Smith I. W., Trimm D. L. (1992a) The Intrinsic Combustion Reactivity of Pulverized Coal Chars: The Use of Experimental Pore Diffusion Coefficients. Proceedings of the Combustion Institute, 24:1217–1223
Valix M. G., Trimm D. L., Smith I. W., Harris D. J. (1992b) Mass Transfer Effects in Coal Combustion. Chemical Engineering Science, 47:1607–1617
Wheeler A. (1951) Reaction Rates and Selectivity in Catalyst Pores. Advances in Catalysis, 3:249–327
Wakao N., Smith J. M. (1962) Diffusion in Catalyst Pellets. Chemical Engineering Science, 17:825–834
Weber R., Dugue J., Sayre A., Peters A. F., Visser B. M. (1992) Measurements and Computations of Quarl Zone Fluid Flow and Chemistry in a Swirling Pulverised Coal Flame, Doc. No. F36/y/20, Int. Flame Reasearch Foundation, Ijumiden
Zhao B., Kantorovich I., Bar-Ziv E., Sarofim A. F. (1998) Dynamic Behavior of Flowing Particles in Combustion Environment, Proc. Combust. Inst. 27, 3127–3134
Zimont V. L., Trushin Z. (1969) „Total combustion kinetics of hydrocarbon fuels,“ Combustion, Explosion, and Shockwave, vol. 5, no. 4, pp. 391–394.
Zinser W. (1985) Zur Entwicklung mathematischer Flammenmodelle für die Verfeuerung technischer Brennstoffe, VDI Fortschrittberichte, Reihe 6, Nr. 171. Düsseldorf: VDI-Verlag GmbH, 1985, ISBN 3-18-147106-2
Zygarlicke C. J., McCollor D. P., Benson S. A., Holm P. L. (1992) Ash Particle Size and Composition of Synthetic Coal and Inorganic Mixtures, Proc. Combust. Inst. 24, 1171–1177
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(2006). Die Verbrennung fester Brennstoffe. In: Technische Verbrennung. Springer, Berlin, Heidelberg . https://doi.org/10.1007/3-540-34334-2_15
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