Research of Technical Solutions to Environmental and Energy Problems During Pyrolysis Processing of Large-Tonnage Solid Organic Waste
https://doi.org/10.20914/2310-1202-2025-1-243-249
Abstract
Large-tonnage solid organic waste [LSOW], such as beet pulp, beer pellets, spent activated sludge [SAS], and ion exchange resins [IER], are formed in large quantities at food and chemical enterprises in Russia. Currently, a large number of methods of processing and disposal are known for these LSOW (use as raw feed or for obtaining feed additives for animals, canning in silage or pulp pits, use as raw materials for biogas production, drying, use as raw materials for obtaining useful components). However, these methods allow only a small amount of LSOW to be processed or disposed of. The main part of LSOW is stored in landfills or silt maps. It is necessary to develop a technical solution to environmental and energy problems in the pyrolysis processing of LSOW. For it, the authors carried out the experimental studies of the pyrolysis processing of LSOW on a laboratory installation. It will include a horizontal pyrolysis reactor, loading and unloading devices, two condensers. As a result, the dependences of the yields of secondary products on the temperature of the pyrolysis process are obtained. The authors established that secondary products are formed in the process of thermal processing of LSOW: liquid fraction; solid residue; pyrolysis gas. The obtained secondary products have a different yield by weight depending on the pyrolysis temperature, but the graphical dependencies are similar for all the studied LSOW. The authors developed a block diagram of a universal pyrolysis plant for processing waste from various industries. It includes three sections:pyrolysis disposal section; solid residue gasification section; liquid fraction separation section.
About the Authors
M. Y. BalabanovaCand. Sci. (Engin.), assistant professor, Department of Industrial Ecology and Technosphere Safety, Revolution Av., 19 Voronezh, 394036, Russia
S. Y. Panov
doctor of technical sciences, professor, department of applied mathematics and mechanics, 20th Anniversary of October Street, 84, Voronezh, 394006, Russia
A. Y. Marnov
listener, department of applied mathematics and mechanics, 20th Anniversary of October Street, 84, Voronezh, 394006, Russia
References
1. Khaskhachikh V.V., Larina O.M., Sychev G.A., Gerasimov G.Ya., Zaichenko V.M. et al. Pyrolytic methods of thermal processing of municipal solid waste. High Temperature. 2021. no. 3. pp. 467-480. (in Russian).
2. Balabanova M.Yu., Sklyadnev E.V. Study of complex chemical-thermal processing of cellulose-containing waste. Problems and innovative solutions in chemical technology. Voronezh: Voronezh State University of Engineering Technologies, 2019. pp. 304-305. (in Russian).
3. Ermolaev V.A. Secondary raw materials of sugar production and directions of its processing. Innovations and food security. 2024. no. 1. pp. 87-94. doi: 10.31677/2311-0651-2024-43-1-87-94 (in Russian).
4. Gabitov R.N., Kolibaba O.B., Sokolisky A.I., Grosheva A.V. Development of a furnace design for solid waste disposal and evaluation of its performance. Bulletin of Ivanovo State Power University. 2019. no. 5. pp. 23-30. doi: 10.17588/2072-2672.2019.5.023-030 (in Russian).
5. Safin R.G., Sotnikov V.G., Ziatdinova D.F. Thermal processing of solid plant waste by slow conductive pyrolysis. Ecology and Industry of Russia. 2023. vol. 27. no. 11. pp. 9-14. (in Russian).
6. Lee X.J. Fast Microwave-Assisted Pyrolysis of Wastes for Biofuels Production. In: Khan A., Asiri A., Bhawani S. (eds.) Waste to Biofuel Technology. Singapore: Springer, 2024. doi: 10.1007/978-981-97-4561-6_5.
7. Kaushal J., Khatri M., Arya S.K. Thermochemical Conversion of Algae Biomass: Pyrolysis and Gasification. In: Arya S.K., Khatri M., Singh G. (eds.) Value Added Products From Bioalgae Based Biorefineries: Opportunities and Challenges. Singapore: Springer, 2024. doi: 10.1007/978-981-97-1662-3_7.
8. Doronina A.S., Likhodumova M.A., Prokhas'ko L.S. Current solutions for the disposal of brewing industry waste. Young Scientist. 2014. no. 9. pp. 133-135. Available at: https://moluch.ru/archive/68/11511/ (in Russian).
9. Zinenko D.V., Strekalov S.V., Lebedinsky E.S. Problems of disposal of spent activated sludge. Current issues of engineering, science, technology. Bryansk: Bryansk State University of Engineering and Technology, 2023. pp. 163-166. (in Russian).
10. Pat. No. 2726979 Russian Federation, F01K 13/00, F23G 5/08. Power complex for municipal solid waste processing / Parshukov V.I., Efimov N.N., Kikhtev I.M., Pryatkina V.S., Kopitsa V.V., Vasiliev B.N. No. 2019119628; filed 24.06.2019; publ. 20.07.2020. 9 p. (in Russian).
11. Ikromov A.A., Eshmukhamedov M.A. Effective methods of organic waste processing by pyrolysis with fuel gas production. Oriental renaissance: Innovative, educational, natural and social sciences. 2023. vol. 3. no. 10. pp. 302-310. (in Russian).
12. Aboelela D., Saleh H., Attia A.M., Elhenawy Y., Majozi T., Bassyouni M. Recent Advances in Biomass Pyrolysis Processes for Bioenergy Production: Optimization of Operating Conditions. Sustainability. 2023. vol. 15. no. 14. p. 11238. doi:10.3390/su151411238.
13. Zhao N., Low S.S., Law C.L., Wu T., Pang C.H. Co-pyrolysis of polymers: Recent advances, challenges and perspectives. Fuel Processing Technology. 2025. vol. 274. p. 108239. doi:10.1016/j.fuproc.2025.108239.
14. Yu S., Zhang H., Liu Z., Yi T., Mao X., Liang X., Nie Y. Design and optimization of electromagnetic induction heating pyrolysis reactor based on load impedance model and heat transfer model. Chemical Engineering Journal. 2025. vol. 509. p. 160851. doi:10.1016/j.cej.2025.160851.
15. Ghodke P.K., Sharma A.K., Pandey J.K., Chen W.-H., Patel A., Ashokkumar V. Pyrolysis of sewage sludge for sustainable biofuels and value-added biochar production. Journal of Environmental Management. 2021. vol. 298. p. 113450. doi: 10.1016/j.jenvman.2021.113450.
16. Sahoo K., Behera U.S., Poddar S. Recycling processes and exploitation of waste to obtain energy and challenges: a mini review. International Journal of Environmental Science and Technology. 2025. doi:10.1007/s13762-025-06502-5
17. Puligundla P., Mok C. Valorization of sugar beet pulp through biotechnological approaches: recent developments. Biotechnology Letters. 2021. vol. 43. pp. 1253-1263. doi:10.1007/s10529-021-03146-6.
18. Jackowski M., Niedźwiecki Ł., Jagiełło K., Uchańska O., Trusek A. Brewer's Spent Grains - Valuable Beer Industry By-Product. Biomolecules. 2020. vol. 10. no. 12. p. 1669. doi:10.3390/biom10121669.
19. Robazza A., Welter C., Kubisch C., Baleeiro F.C.F., Ochsenreither K., Neumann A. Co-Fermenting Pyrolysis Aqueous Condensate and Pyrolysis Syngas with Anaerobic Microbial Communities Enables L-Malate Production in a Secondary Fermentative Stage. Fermentation. 2022. vol. 8. no. 10. p. 512. doi:10.3390/fermentation8100512.
20. Morya S., Sandhu D., Neumann A., Simon C.J. Chapter 3: Sustainable Environmental Remediation by Valorization of Agro-food Industrial Waste and By-products. Green Chemistry Series. 2023. pp. 70-94. doi: 10.1039/BK9781837670093-00070.
21.
Review
For citations:
Balabanova M.Y., Panov S.Y., Marnov A.Y. Research of Technical Solutions to Environmental and Energy Problems During Pyrolysis Processing of Large-Tonnage Solid Organic Waste. Proceedings of the Voronezh State University of Engineering Technologies. 2025;87(1):243-249. (In Russ.) https://doi.org/10.20914/2310-1202-2025-1-243-249