Integrated Activation Techniques for Enhanced Thermal Dissolution of Barzas Coal into Liquid Hydrocarbons

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Kasimov Asroriddin Sadievich
Ibragimova Gulzoda Nabiyevna
Gordienko Irina Viktorovna
Masenko Aleksey Vladimirovich
Aleksandrov Andrey Andreevich

Abstract

The study investigates the thermal dissolution of Barzas coal using mechanochemical activation, ozone treatment, and ultrasonic processing to enhance the yield and quality of liquid products. The experimental work comprised preparing coal samples by high-energy ball milling, followed by ozone oxidation and ultrasonic pretreatment, and thermal dissolution in tetralin at 375-425 °c. The results showed that the integrated activation approach significantly increased organic matter conversion, reaching up to 88.3% at 400 °C with ultrasonic treatment, compared with 64.9% without activation. The yield of liquid fractions was 57.9% of the dry coal mass, and the light fractions exhibited a high calorific value of up to 41.2 MJ/kg, with aromatic hydrocarbon content exceeding 65%. Lower heating rates and controlled temperature conditions were essential to maximise conversion and minimise heavy residue formation. The findings highlight the effectiveness of combining mechanical, oxidative, and ultrasonic activation to improve coal dissolution and produce liquid hydrocarbons suitable for fuel components and chemical feedstock applications.

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References

Gorlov EG. Thermal Dissolution of Solid Fossil Fuels. Solid Fuel Chemistry 2007; 41(5): 290–298.

Luik H. Alternative Technologies for Oil Shale Liquefaction and Upgrading. Tallinn University of Technology 2009.

Klyuev RV, Martyushev NV, Kukartsev VV, Kukartsev VA, Brigida V. Analysis of Geological Information Toward Sustainable Performance of Geotechnical Systems. Mining Informational and Analytical Bulletin 2024; 5: 144–157.

Tynchenko YA, Kukartsev VV, Gladkov AA, Panfilova TA. Assessment of Technical Water Quality in Mining Based on Machine Learning Methods. Sustainable Development of Mountain Territories 2024; 16(1): 56–69.

Lu HY, Wei XY, Yu R, Peng YL, Qi XZ. Sequential Thermal Dissolution of Huolinguole Lignite in Methanol and Ethanol. Energy & Fuels 2011; 25(5).

Al Smadi T, Al-Maitah M. Artificial Intelligence Technology for Safe Driver Assistance System. International Journal of Computer Aided Engineering and Technology 2020; 13(1–2): 183–191.

Li H. Thermal Dissolution of Shenfu Coal in Different Solvents. International Journal of Coal Geology 2012; 108: 385–390.

Zhang PN, Kuznetsova L, Chumakov VG, Moiseeva GA. Mechanochemical Activation of Iron Ore-Based Catalysts for Brown Coal Hydrogenation. Materials Research Innovations 2000; 3: 340–346.

Martyushev N, Kozlov V, Qi M, Han Z, Bovkun A. Milling Martensitic Steel Blanks Obtained Using Additive Technologies. Obrabotka Metallov 2023; 25(4): 74–89.

Salmon E, Behar F, Lorant F, Hatcher JP, Marquaire PM. Early Maturation Processes in Coal. Part 1: Pyrolysis Mass Balances and Structural Evolution. ArXiv 2009.

Larichev P, Tynchenko V, Nekrasov I. Application of Petri Nets for Modelling Ore Flows to Create a Dynamic Management and Quality Control System in Mineral Resource Complexes. Proceedings of the International Conference on Industrial Engineering, Applications and Manufacturing 2024; 2024: 1089–1094.

Malozyomov BV, Martyushev NV, Kukartsev VV, Konyukhov VY, Oparina TA, Sevryugina NS, Gozbenko VE, Kondratiev VV. Determination of the Performance Characteristics of a Traction Battery in an Electric Vehicle. World Electric Vehicle Journal 2024; 15: 64.

Ivanova EV, Martyushev NV, Musatova AI, Kukartsev VV, Karlina AI. Multivariate Approach to Justifying a Rational Payback Period for an Investment Project of an Electric Steelmaking Shop. Chernye Metally 2023; 2023(8): 74–80.

Ugwumadu C, Olson IIIR, Smith NL, et al. Computer Simulation of Carbonisation and Graphitisation of Coal. ArXiv 2023.

Degtyareva K, Tynchenko V, Kukartsev V, Khramkov V. Use of Computer Simulation Tools to Simulate Processes at the Foundry. Proceedings of the 23rd International Symposium INFOTEH-JAHORINA 2024; 2024: 199053.

Debiag P, Rocha RC, Scholtissek A, Janicka J, Hasse C. Iron as a Sustainable Chemical Carrier of Renewable Energy: Retrofitting Coal-Fired Power Plants. ArXiv 2022.

Orlov V, Tynchenko V, Volneykina E, Shutkina E, Stupin A. Developing a Chatbot-Based Information System for Employee Interaction. E3S Web Conferences 2024; 549: 08018.

Luik H, Tiikma L, Johannes I, Aarna I. Catalytic Thermal Liquefaction of Oil Shale in Tetralin. ISRN Chemical Engineering 2012; 2012: 617363.

Li X, Zhao Y, Wang Z. Thermal Dissolution of Shenfu Coal in Different Solvents. Fuel Processing Technology 2013; 107: 123–130.

Wu H, Shui H, Liu Y, Zhang L, Zhang S, Liu H. Thermal Dissolution of Shenfu Sub-bituminous Coal Promoted by Lignin. Thermal Chemical Engineering 2014; 11: 71–82.

Tiikma L, Johannes I, Luik H. Formation of Thermobitumen from Oil Shale by Low-Temperature Pyrolysis in an Autoclave. Oil Shale 2007; 24(4): 535–546.

Liang S, Bai XL. Residue Characteristics and Structural Evolution of Naomaohu Coal during Direct Liquefaction at 400 °C. Fuel Processing Technology 2021; 212: 106622.

Meyer NJA, Neomagus HWJP. Direct Liquefaction of South African Vitrinite- and Inertinite-Rich Coals in Tetralin: Product Yields and Quality at 400–450 °C. ACS Omega 2024; 9: 10938412.

Li W, Lu X, Zhou J. Regulation of Radicals by Hydrogen-Donor Solvent in Direct Coal Liquefaction. Frontiers of Chemical Science and Engineering 2022; 16: 1103–1116.

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