Methods for quantifying the efficiency of using a solid fuel plasma igniter

Authors

  • V.E. Messerle Institute of Combustion Problems, 172 Bogenbay batyr str., Almaty, Kazakhstan; Al-Farabi Kazakh National University, 71, Al-Farabi ave., Almaty, Kazakhstan
  • A.B. Ustimenko National Nano Laboratory of Open ype, 71 Al-Farabi Ave., Almaty, Kazakhstan
  • A.O. Lavrishchev Al-Farabi Kazakh National University, 71, Al-Farabi ave., Almaty, Kazakhstan; Institute of Experimental and Theoretical Physics, 71 Al-Farabi ave., Almaty, Kazakhstan
  • M.K. Nugman Al-Farabi Kazakh National University, 71, Al-Farabi ave., Almaty, Kazakhstan

Keywords:

plasma technology, exergetic analysis, entropy analysis, solid fuel ignition, rationing, standardization of energy

Abstract

The results of theoretical research on methods for determining the quantitative assessment of the effectiveness of using plasma ignition of solid fuel in thermal power plants are presented in this article. During the gas crisis and the global trend of reducing the carbon footprint, the use of plasma technologies in energy takes on a new development stage. In global heat power engineering, natural gas or fuel oil is used for firing pulverized coal boilers and igniting pulverized coal torches. The use of plasma ignition of energy coal allows to replace expensive oil products with cheap coal at thermal power stations. This article raises the importance of assessing quantitative efficiency and eco-economic advantages of applying resource-saving energy plasma torching compared to traditional technologies in power engineering. The article also discusses methods for quantitatively assessing the effectiveness applicable to thermal power plants. The main task of the research is to develop a methodology and approve standards for further standardization of the work of plasma torch with the intention of commercializing the technology mentioned.

References

(1). Piir AE, et al (2012) The power engineer [Energetik] 1:60-64. Crossref

(2). Messerle VE, Ustimenko AB (2024) Applications in Energy and Combustion Science 17. Crossref

(3). Messerle VE, Ustimenko AB, Karpenko EI, Lavrichshev OA (2013) Fuel processing technology 107(SI):93-98. Crossref

(4). Messerle VE, Orynbasar MN, Ustimenko AB (2024) Environmental efficiency of plasma technology for the use of solid fuels, Some problems of decarbonization and alternative energy. Daryn, Almaty, Republic of Kazakhstan. P.244 (in Rus).

(5). Bayrashevsky BA, Borushko NP, Shavelzon MI (2005) Energy and Management 4:14-17.

(6). Gokhstein DP (1964) Modern methods of thermodynamic analysis of power plants. Energiya, Moscow. P.368. (in Rus).

(7). Dyskin LM, Morozov MS (2018) Modern methods of thermodynamic analysis in thermal power engineering. PC NNGASU, N.Novgorod. P.133. (in Rus). ISBN 978-5-528-00275-0

(8). Bazhenov AI (2009) Energy and electrical engineering[Energetika i elektrotechnika]: 1-8. (in Rus).

(9). Sidorova YS, Plotnikov VV (2010) Bulletin of the KGEU 3(6):24-31.

(10). Amirkhanov RA, Garkavy KA (2003) International Agricultural Journal 3:63-64. (in Rus).

(11). Messerle VE, Ustimenko AB (2014) Springer: 977-990. Crossref

(12). Messerle VE, Ustimenko AB (2014) Springer: 961-976. Crossref

(13). Erzen S, Açıkkalp E, Hepbasli A (2022) Hybrid Technologies for Power Generation. Hybrid Energy Systems: 189-218. Crossref

(14). Bejan А, Tsatsaronis G, Moran M-J (1996) John Wiley & Sons: 560. Crossref

(15). Abusoglu А, Kanoglu M (2009) Renewable & Sustainable Energy Reviews 13:2295-2308. Crossref

(16). Agapov DS (2017) Structural and parametric optimization of industrial thermal engineering and technological equipment systems. St. Petersburg. P. 340. (in Rus).

(17). Ahmadi MH, Alhuyi Nazari M (2019) Energy Science & Engineering 7:30-65. Crossref

(18). Sciubba E, Wall G (2007) International Journal of Thermodynamics 10(1):1‐26.

(19). Tsatsaronis G. (2007) Energy 32(4):249‐253. Crossref

(20). Amerkhanov RA (2005) News of higher educational institutions, The North Caucasus region. Series of Technical Sciences 2:77-79.

(21). Atmaca A, Yumrutas R (2020) Energy Conversion and Management 79:790-798. Crossref

(22). Karpenko EI, Ustimenko AB (2020) Combustion and plasma chemistry [Gorenje i plasmochemistry] 4(75):72-85. (in Rus).

(23). Messerle VE, Orynbasar MN, Ustimenko AB, Combustion and plasma chemistry (Gorenje i plasmochemistry) 22:27-36. Crossref

(24). Information and Legal System of regulatory Legal Acts of the Republic of Kazakhstan «Adlet», 22 Feb. (2024) Order of the Minister of National Economy of the Republic of Kazakhstan dated December 5, 2014 No. 129 On Approval of the Rules for the Development or Adjustment, Carrying out the Necessary Examinations of the Investment Proposal of the State Investment Project, as well as Planning, Consideration, Selection, Monitoring and Evaluation of the Implementation of budget Investments and Determining the Expediency of budget Lending. URL

Published

2024-06-17

How to Cite

Messerle, V., Ustimenko, A., Lavrishchev, A., & Nugman, M. (2024). Methods for quantifying the efficiency of using a solid fuel plasma igniter. Combustion and Plasma Chemistry, 22(2), 71–79. Retrieved from https://cpc-journal.kz/index.php/cpcj/article/view/432

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