Modular plants for combined biomass-based production of electricity and synthetic liquid fuel
https://doi.org/10.30724/1998-9903-2020-22-1-113-127
Abstract
The high costs of qualified liquid fuels in remote areas of Siberia and the Far East, as well as significant stocks of wood biomass in these areas determine the relevance of the presented studies. The integrated processing of woody biomass into synthetic liquid fuel and electricity will increase the energy and economic efficiency of processing technological waste, as well as improve the environmental situation in these areas.
The aim of the work is technical and economic optimization of parameters modular installations of the combined production of electricity and methanol from woody biomass.
The article presents an analysis of previously performed work on the topic of research and, based on them, selected one of the most effective ways to process wood biomass - oxidative conversion of this raw material to produce gas enriched in hydrogen and carbon oxides, synthesis of qualified liquid fuels and generating electricity when burning purge gas synthesis process.
The technological scheme of modular plants for combined biomass-based production of electricity and synthetic liquid fuel, its mathematical model of its elements and the scheme as a whole are given. On the basis of the selected methods, optimization studies of the operation of a modular energy technology installation were carried out.
Analysis of the results showed that the combined production of electricity and methanol based on biomass increases the thermal efficiency of the process by 12% and reduces investment by 15-20% compared with separate production. With an internal rate of return of capital of 15%, the cost of methanol from biomass will be 275-317 dollars per ton. At such a cost, methanol can compete with both boiler-furnace and motor fuels in the eastern regions of Russia.
Keywords
About the Authors
E. A. TyurinaRussian Federation
Elina A. Tyurina
130, Lermontov str., Irkutsk
A. S. Mednikov
Russian Federation
Alexander S. Mednikov
130, Lermontov str., Irkutsk
P. Yu. Elsukov
Russian Federation
Pavel Yu. Elsukov
RAS, 130, Lermontov str., Irkutsk
References
1. George A. Olah, Alain Goeppert, Surya GK. Prakash Beyond Oil and Gas: The Methanol. Economy. Wiley-VCH; 2 ed. 2011.356 p.
2. Sunggyu Lee, James G. Speight, Sudarshan K. Loyalka Handbook of Alternative Fuel Technologie. 2 ed. CRC Press. Taylor & Francis Group, LLC, 2015. 712 p.
3. Firmansyah H, Tan Y, Yan J. Power and methanol production from biomass combined with solar and wind energy: analysis and comparison. Energy Procedia. 2018; 145:576–81.
4. Martín M, Grossmann IE. Towards zero CO 2 emissions in the production of methanol from switch grass. CO2 to methanol. Computers & Chemical Engineering. 2017; 105:308-16.
5. Yang S, Li B, Zheng J, et al. Biomass-to-Methanol by dual-stage entrained flow gasification: Design and techno-economic analysis based on system modeling. Journal of Cleaner Production 2018; 205:364–74.
6. Moellenbruck F, Kempken T, Dierks M, Oeljeklaus G, Goerner K. Cogeneration of power and methanol based on a conventional power plant in Germany. Journal of Energy Storage 2018; 19:393-401.
7. Bai Z, Liu Q, Gong L, et al. Thermodynamic and economic analysis of a solar-biomass gasification system with the production of methanol and electricity. Energy Procedia 2018; 152:1045-50.
8. Kler AM. Effective methods of circuit-parametric optimization of complex heat and power plants: development and use. Novosibirsk: Academic publishing house "Geo", 2018. 145 p. doi: 10.21782/В978-5-6041446-0-2.
9. Gao Z, Huang W, Yin L, et al. Liquid-phase preparation of catalysts used in slurry reactors to synthesize dimethyl ether from syngas: Effect of heat-treatment atmosphere, Fuel Processing Technology. 2009;90:1442-1446.
10. Guang-jian L, Zheng L, Ming-hua W, et al. Energy savings by co-production: A methanol/electricity case study. Applied Energy. 2010;87:2854-2859.
11. Hetland J, Anantharaman R. Carbon capture and storage (CCS) options for co-production of electricity and synthetic fuels from indigenous coal in an Indian context. Energy for Sustainable Development. 2009;13:56-63.
12. Larson E, Fiorese G, Liu G, et al. Co-production of decarbonized synfuels and electricity from coal + biomass. Energy Environ Science. 2010;3:28-42.
13. Manzolini G, Macchi E, Gazzani M. CO2 capture in Integrated Gasification Combined Cycle with SEWGS – Pt B: Economic assessment. Fuel. 2013;105:220-227.
14. Pellegrini L, Soave G, Gamba S, Lange S. Economic analysis of a combined energy–methanol production plant. Applied Energy. 2011;88:4891-4897.
15. Robinson K, Tatterson D. Economics on Fischer–Tropsch coal-to-liquids method updated. Oil Gas J. 2008;106:22-52.
16. Sajo P. Naik, Taegong Ryu, Vy Bui, et al. Synthesis of DME from CO 2 /H 2 gas mixture. Chemical Engineering Journal.2011;167(1):362-368.
17. Sun S, Jin H, Gao L, et al. Study on a multifunctional energy system producing coking heat, methanol and electricity. Fuel. 2010;89:1353-1360.
18. Kler AM, Tyurina EA, Mednikov AS. A plant for methanol and electricity production: Technical-economic analysis. Energy. 2018;165:890–899.
19. Kler AM, Dekanova NP, Tyurina EA. Thermal Power Systems: Optimization Studies. Novosibirsk: Nauka; 2005.
20. Kler AM, Tyurina EA, Mednikov AS. Energy-technology installations for combined production of hydrogen and electricity with CO2 removal systems. International Journal of Hydrogen Energy. 2011;36(1):1230–1235 pp.
21. Kler AM, Zharkov PV, Epishkin NO. An effective approach to optimizing the parameters of complex thermal power plants. Thermophysics and Aeromechanics. 2016;23(2):289-296.
22. Kler AM, Tyurina EA. Production of products of deep coal processing: modeling of technologies, comparison of efficiency. The burning and plasma chemistry 2007; 4:276-81.
23. Optimization studies of power plants and complexes. Novosibirsk: Academic publishing house "Geo", 2016. 298 p.
24. Berezina LA, Matyshak VA, Korchak VN, et al. An in SITU IR spectroscopic study of methanol conversion on an SNM-1 catalyst. Kinetics and Catalysis. 2009;50(5):775-783.
25. Rozovskii AYa, Lin GI. Fundamentals of methanol synthesis and decomposition. Topics in Catalysis. 2003;22(3-4):137-150.
26. Rozovsky AYa, Lin GI. The theoretical basis of the process of methanol synthesis. M .: Chemistry, 1990. 272 p.
27. Skvortsov L. Explicit stabilized Runge-Kutta methods. Computational Mathematics and Mathematical Physics. 2011;51:1153–1166. doi: 10.1134/S0965542511070165.
28. Martín-Vaquero J, Kleefeld B. Extrapolated stabilized explicit Runge–Kutta methods. Journal of Computational Physics. 2016;326:141–155.
Review
For citations:
Tyurina E.A., Mednikov A.S., Elsukov P.Yu. Modular plants for combined biomass-based production of electricity and synthetic liquid fuel. Power engineering: research, equipment, technology. 2020;22(1):113-127. (In Russ.) https://doi.org/10.30724/1998-9903-2020-22-1-113-127