Experimental studies of a wet single-zone electrofilter
https://doi.org/10.30724/1998-9903-2025-27-2-63-75
Abstract
Relevance. In the context of increasing requirements for air purity at industrial enterprises, electrostatic precipitators are of particular importance as an effective means of removing harmful particles from the air. The issues of their optimization remain relevant, since the level of purification and the cost-effectiveness of production processes depend on it.
The purpose. To conduct an experimental study of a wet single-zone electrostatic precipitator and determine the influence of design and operating parameters on its efficiency.
Methods. The electrostatic precipitator under study differs from classic electrostatic precipitators in the design of the precipitating electrodes. The precipitating electrodes are made in the form of round, rotating disks, which are half immersed in liquid for continuous cleaning. For the study, an experimental stand with a wet single-zone electrostatic precipitator was used, in which the key parameters were changed: supply voltage, distance between electrodes, radius of the precipitating electrodes and air flow velocity. The efficiency of the filter was estimated by measuring the concentration of particles before and after air purification. Each experiment was carried out for 20 minutes and repeated 5 times.
Results. Based on the test results, graphs were constructed of the dependence of the air purification efficiency of the electrostatic precipitator on the design and operating parameters. The experiments showed that the air purification efficiency decreases with an increase in the air flow rate and interelectrode distance, while an increase in the voltage and diameter of the electrodes improves the cleaning quality. Graphic dependences of the efficiency on the variable parameters were obtained, which made it possible to identify the optimal parameters.
Conclusion. Optimization of the parameters of the wet single-zone electrostatic precipitator helps to increase the air purification efficiency, which allows to reduce harmful emissions at production sites and improve the environmental friendliness and cost-effectiveness of production processes.
About the Authors
A. G. VozmilovRussian Federation
Alexander G. Vozmilov,
Chelyabinsk
V. G. Urmanov
Russian Federation
Vil G. Urmanov,
Ufa
S. A. Panishev
Russian Federation
Sergey A. Panishev,
Chelyabinsk
A. A. Lisov
Russian Federation
Andrey A. Lisov,
Chelyabinsk
References
1. Chiklyaev E.G., Taneeva A.V., Korotaev O.R. Problems of environmental safety of the air environment of industrial enterprises // News of higher educational institutions. Energy problems. 2010. No. 3-4. pp. 122-130.
2. Preobrazhensky Yu.P. On the problems of air quality and atmospheric pollution // Innovative methods of designing building structures of buildings and structures. 2020. pp. 219-222.
3. Borodina M. A., Kicha M. A., Mikhailenko V. S. Purification of the air environment from liquid and solid aerosols using a UV-FA filter // Bulletin of MANEB. 2023. Vol. 28. No. 1. p. 28.
4. Danshova A. S. Disinfection of air in ventilation systems // Scientific aspect. 2024. No. 6. pp. 7149-7155.
5. Boy A.G., Tishchuk A.A., Romanyuk R.A. Dustiness of the air environment of woodworking shops. Ways to reduce the concentration of dust in the air of the working area // Innovative technologies in mechanical engineering: proceedings of the XIV Scientific and Practical International Conference, May 25-27, 2023, Jurga. Tomsk Polytechnic University, pp. 177-180.
6. Mata T.M., Martins A.A., Calheiros K.S. and others. Indoor air quality: an overview of cleaning technologies // Environment. 2022. Vol. 9. No. 9. p. 118.
7. Swami G. Development of an indoor air purification system to improve ventilation and air quality. 2021. Vol. 7. No. 10.
8. Bazykin V.I. Ways to reduce emissions of climatically active gases on pig farms //Agroecoengineering. 2023. No. 4 (117). pp. 113-129.
9. Gulai E. S., Zaripov R. I. The role of high-efficiency filters in life support //Current scientific research from theory to practice: proceedings of the International Scientific and practical Conference, January 19, 2024, Moscow. T2. P. 75.
10. Dubey S., Rora H., Taneya A. Evaluation of the effectiveness of air purifiers (HEPA) for the control of indoor pollution by solid particles // Heliyon. 2021. Vol. 7. No. 9.
11. Viner A. S. and others. Air purifiers to combat indoor air pollution //Indoor air pollution. – CRC Press, 2021. – pp. 115-131.
12. Vozdilov A.G., Ilimbetov R.Yu., Panishev S.A., and others. Analysis of electrostatic precipitators for air purification of industrial premises // News of higher educational institutions. Energy problems. 2024. Vol. 26. No. 2. pp. 78-96.
13. Chen L., Gonze E., Ondarts M. et al. An electrofilter for removing fine and ultrafine particles from indoor air // Separation and purification technology. 2020. Vol. 247. pp. 116964.
14. Pal A., Dixit A., Srivastava A.K. Design and optimization of the shape of the electrostatic precipitator system // Materials today: Proceedings. 2021. Vol. 47. pp. 3871-3876.
15. Lee G.H., Hwang S.Y., Cheon T.V. and others. Optimization of the shape of the tubular discharge electrode to increase the efficiency of collecting the electrostatic precipitator // Powder technologies. 2021. Vol. 379. pp. 241-250.
16. Wang P., Liu J., Wang S. et al. Comprehensive assessment of the effectiveness of channel electrostatic precipitators // Journal of environmentally friendly production. 2022. Vol. 357. pp. 131997.
17. Andrade R.G., Guerra V.G. The effect of a discharge electrode on the electrostatic deposition of nanoparticles // Powder technology. 2021. Vol. 379. pp. 417-427.
18. Wang H. The effect of corona discharge propagation on the characteristics of an electrofilte r // Powder technology. 2020. Vol. 366. pp. 36-42.
19. Shavkunov M. L., Korepanov A. S., Lekomtsev P. L. Investigation of the effect of corona discharge polarity on the operation of an electrofilter // Scientific developments and innovations in solving strategic tasks of the agro-industrial complex. 2022. pp. 304-308.
20. Parkhomchuk G. E. Investigation of the influence of output parameters of high voltage sources on the parameters of electrostatic precipitators // Actual issues of modern science and education. 2024. p. 20.
21. Selezneva D. M. Conducting tests of a multi-zone electrostatic precipitator for dedusting the air of agricultural premises // Agrotechnics and energy supply. 2021. No. 2 (31). pp. 12-17.
22. Katin V. D., Zhuravlev A. A. Development of a new design of a highly efficient cycloneelectric filter for coal-fired boilers // Development of modern science and technology in conditions of transformation processes. 2022. pp. 60-64.
23. Slobodskova A.A., Belimenko S.O., Suslov I.A., and others. On the issue of the effectiveness of a wet electrostatic precipitator in air purification // The effectiveness of the use of innovative technologies and equipment in agriculture and water management. 2020. pp. 411-413.
24. Badami M. M. et al. Design, optimization and evaluation of a wet electrostatic precipitator (ESP) for aerosol collection // Atmospheric environment. – 2023. – Vol. 308. – p. 119858.
25. Lee H., Tohidi R., Aldehil M. et al. Development of an air conditioner with an electrostatic precipitator to reduce the content of fine solid particles in the subway // IEEE Transactions on Industry Applications. 2022. Vol. 58. No. 3. pp. 3992-3998.
26. Knight R.M., Hoche J.S., Milliken S.R. et al. Development and optimization of full-scale prototypes of electrostatic precipitators in the laboratory to reduce the content of solid particles in poultry farms // Biosystem Engineering. 2023. Vol. 230. pp. 71-82.
27. Yurkin V.V., Ilimbetov R.Yu., Dmitriev A.A., and others. On the issue of calculating the structural parameters of a wet electrofilter // AgroEcoInfo. 2023. № 5 (59).
28. Vozdilov A.G., Andreev L.N., Panishev S.A., and others. The use of a two-stage wet electrostatic precipitator in recirculating air purification systems in agricultural production facilities in order to reduce the incidence of workers // Bulletin of the NGIEI. 2022. №. 5 (132). Pp. 45-54.
29. Krasilova V.A., Kossovich E.L., Gavrilova D.I., and others. Laboratory installation for the capture and concentration of suspended coal dust // Mining Information and Analytical Bulletin (scientific and technical journal). 2022. No. 6. pp. 121-130.
30. Zhu Yu., Chen K., Shi J. and others . An experimental study of the effect of the collection length in a two-stage electrostatic precipitator on the removal of PM2. 5 // Journal of Chemical Engineering. 2021. Vol. 421. p. 127797.
31. Chen L., Gonze E., Ondarts M. et al. An electrofilter for removing fine and ultrafine particles from indoor air // Separation and purification technology. 2020. Vol. 247. pp. 116964.
32. Zhou W., Jiang R., Sun Yu. and others. Investigation of the characteristics of the multiphysical field of an electrofilter with various collecting electrodes // Powder technology. 2021. Vol. 381. pp. 412-420.
Review
For citations:
Vozmilov A.G., Urmanov V.G., Panishev S.A., Lisov A.A. Experimental studies of a wet single-zone electrofilter. Power engineering: research, equipment, technology. 2025;27(2):63-75. (In Russ.) https://doi.org/10.30724/1998-9903-2025-27-2-63-75