Plasma gasification of coal in various media

Authors

  • V.E. Messerle Institute of Combustion Problems, 172, Bogenbay batyr str., Almaty, Kazakhstan; Kutateladze Institute of Thermophysics of SB RAS, 1, Ac. Lavrentiev ave., Novosibirsk, Russia; Plasmatechnics R&D LLP, 26, Nauryzbay batyr str., Almaty, Kazakhstan
  • K.A. Umbetkaliev Institute of combustion problems, Bogenbay Batyr Str., 172, Almaty, Kazakhstan
  • A.B. Ustimenko Institute of combustion problems, Bogenbay Batyr Str., 172, Almaty, Kazakhstan; Plasmatechnics R&D LLP, 26, Nauryzbay batyr str., Almaty, Kazakhstan

DOI:

https://doi.org/10.18321/cpc549

Keywords:

coal, gasifying agent, plasma gasification, synthesis gas, energy efficiency

Abstract

Numerical experiments on plasma gasification of coal in various gasifying agents (air, carbon dioxide, steam, oxygen, and mixtures of steam with air, steam with oxygen, steam with carbon dioxide) were performed using the Plasma-Coal kinetic program. Numerical experiments were carried out in relation to a flow-through cylindrical plasma gasifier with a combined zone of release and absorption of heat in the process of thermochemical transformations of coal in gasifying agents. Heating of the gasifying agent,
coal particles and their gasification takes place in the plasma gasifier. Calculations have shown that the maximum concentration of synthesis gas in the coal gasification products of the Powder River Basin is observed during steam-carbon dioxide, carbon dioxide, steam, steam-oxygen and oxygen gasification. The maximum yield of hydrogen (51.4%) is achieved with steam gasification of coal. The energy efficiency of the considered processes of coal gasification, with the exception of oxygen and steam-oxygen gasification, varies in a relatively narrow range of 1.6-2.5 kW/kW. With steam-oxygen and oxygen gasification of coal, the energy efficiency noticeably increases to 3.5 and 11.4 kW/kW, respectively. Very important for reducing emissions of the main greenhouse gas (CO2) is the possibility of using it as a gasification agent in the processes of steam-carbon dioxide and carbon dioxide gasification of coal with an energy efficiency of the process exceeding that of air gasification of coal. 

References

(1). Chernenkov II, Shafir GS (1982) Status and prospects of coal gasification. Review [Sostoyaniye i perspektivy gazifikatsii ugley. Obzor]. Moscow: TsNIEIugol. 46 p. (in Russian)

(2). Falbe Yu (ed) (1980) Chemicals from coal [Khimicheskiye veshchestva iz uglya]. Moscow: Chemistry. P.614. (in Russian)

(3). Schlinger WG (1984) The Texaco Coal Gasification Process. In Handbook of Synfuels Technology, ed. R.A. Meyers, New York:McGraw-Hill. P.3-148.

(4). Curran PF, Tyree RF (1998) Feedstock Versatility for Texaco Gasifiers. Paper presented at IChemE Conference “Gasification: The Gateway to a Cleaner Future,” Dresden, Germany.

(5). Mark H (2006) Tampa Electric – Polk Unit 1 IGCC, Nine Years of Operation. The Proceedings of the 31-th International Technical Conference on Coal Utilization and Fuel systems. Clearwater, Florida, USA: Published by U.S. department of Energy & Coal Technology association of USA. P.239.

(6). Pinkston T (2006) Orlando Gasification Project: Demonstration of a 285 MW Coal-Based Transport Gasifier. The Proceedings of the 31-th International Technical Conference on Coal Utilization and Fuel systems. Clearwater, Florida, USA: Published by U.S. department of Energy & Coal Technology association of USA. P.261.

(7). Xiang X, Yunhan X, Chunzhen Q (2006) Conceptual Design and Performance Analysis of Coal Based Direct Hydrogen Production System with CO2 Capture. The Proceedings of the 31-th International Technical Conference on Coal Utilization and Fuel systems. Clearwater, Florida, USA: Published by U.S. department of Energy & Coal Technology association of USA. P.668-679.

(8) Arun CB (2006) Co-Production of Hydrogen and Electricity Using Circulating Fluidized Bed Technologies. The Proceedings of the 31-th International Technical Conference on Coal Utilization and Fuel systems. Clearwater, Florida, USA: Published by U.S. department of Energy & Coal Technology association of USA. P.903-913.

(9) Zhukov MF, Kalinenko RA, Levitskiy AA, Polak LS (1990) Plasma-chemical processing of coal [Plazmokhimicheskaya pererabotka uglya]. Moscow: Nauka. P.200. (in Russian)

(10) Messerle VE, Ustimenko AB (2019) Fuel 242:447-454. https://doi.org/10.1016/j.fuel.2019.01.050

(11) Galvita V, Messerle VE, Ustimenko AB (2007) International Journal of Hydrogen Energy 32(16):3899-3906. https://doi.org/10.1016/j.ijhydene.2007.05.039

(12) Matveev IB (2016) Plasma assisted combustion, gasification, and pollution control. Volume 2. Combustion and gasification. Denver, Colorado: Outskirts Press, Inc. P.502. https://plasmacombustion.org/imgs/book2web.pdf

(13) Gorokhovski M, Karpenko EI, Lockwood FC, Messerle VE, Trusov BG, Ustimenko AB (2005) Journal of the Energy Institute 78(4):157-171. https://doi.org/10.1179/174602205X68261

(14) Kalinenko RA, Kuznetsov AP, Levitsky AA, Messerle VE, Mirokhin YuA, Polak LS, Sakipov ZB, Ustimenko AB (1993) Plasma Chemistry and Plasma Processing 13(1):141-167. https://doi.org/10.1007/bf01447176

(15) Smoot LD, Smith PJ (1979) Pulverized Coal Combustion and Gasification: Theory and Applications for Continuous Flow Processes. L.D. Smoot, D.T. Pratt. (eds.). Springer. P.333. https://doi.org/10.1007/978-1-4757-1696-2

(16) Matveev IB, Messerle VE, Ustimenko AB (2008) IEEE Transactions on Plasma Science 36(6):2947-2954. https://doi.org/10.1109/TPS.2008.2007643

Published

2022-09-12

How to Cite

Messerle, V., Umbetkaliev, K., & Ustimenko, A. (2022). Plasma gasification of coal in various media. Combustion and Plasma Chemistry, 20(3), 219–227. https://doi.org/10.18321/cpc549

Most read articles by the same author(s)

1 2 > >>